example0_i-a_t-0.1.v
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========================================================
example1_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
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========================================================
example2_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example3_i-a_t-0.1.v
 if (id_en_i)
 id_rnd_out = id_rnd_in;
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 end
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 end
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 end
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 end
 else
 id_rnd_out = {IfBytes{1'b1}};
 end
 end
 else
 id_rnd_
========================================================
example4_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
 kmap_data_vld = 1'b1;
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end

========================================================
example5_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example6_i-a_t-0.1.v
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========================================================
example7_i-a_t-0.1.v
 if (kmac_data_i.ready) begin
 kmac_data_i.ready = 0;
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
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 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 
========================================================
example8_i-a_t-0.1.v
 this should be done in a different way
 the current way is not safe
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in a different way
 the current way is safe but it is not recommended
 it should be done in
========================================================
example9_i-a_t-0.1.v
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========================================================
example10_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example11_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
 kmap_data_vld = 1'b1;
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end
 else
 then
 kmap_data_vld = 1'b1;
 end
 end

========================================================
example12_i-a_t-0.1.v
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========================================================
example13_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
 if (id_en_i)
 then
 else if (gen_en_i)
 then
 else
 then
 if (adv_en_i)
 then
 else
 then
 if (id_en_i)
 then
 else if (gen_en_i)
 then
 else
 then
 if (adv_en_i)
 then
 else
 then
 if (id_en_i)
 then
 else if (gen_en_i)
 then
 else
 then
 if (adv_en_i)
 then
 else
 then
 if (id_en_i)
 then
 else if (gen_en_i)

========================================================
example14_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)

========================================================
example15_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example16_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example17_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
 assign
 kmac_done_vld = 1'b1;
 end
 else
 then
 assign
 kmac_done_vld = 1'b1;
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end

========================================================
example18_i-a_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)
// then
// else
// then
// if (gen_en_i)
// then
// else
// then
// if (adv_en_i)
// then
// else
// then
// if (id_en_i)

========================================================
example19_i-a_t-0.1.v
 if (adv_en_i)
 then
 else
 then
 end
 else
 then
 end





















































































========================================================
example0_i-a_t-0.3.v
 if (adv_en_i)
 then
 else
 then
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 

========================================================
example1_i-a_t-0.3.v
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========================================================
example2_i-a_t-0.3.v
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========================================================
example3_i-a_t-0.3.v
 if (kmac_data_i.ready)
 kmac_data_i.ready = 1'b1;
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0;
 end
 else
 kmac_data_i.ready = 1'b0
========================================================
example4_i-a_t-0.3.v
 if (adv_en_i)
 begin






























































































========================================================
example5_i-a_t-0.3.v
 if the input is ready, then it is a valid transaction.
 if the input is not ready, then it is not a valid transaction.
 the input is ready when it is not in an active state.
 the input is not ready when it is in the active state.
 the input is not ready when it is in the idle state.
 the input is not ready when it is in the process state.
 the input is not ready when it is in the wait state.
 the input is not ready when it is in the done state.
 the input is not ready when it is in the error state.
 the input is not ready when it is in the error state.
 the input is not ready when it is in the error state.
 the input is not ready when it is in the error state.
 the input is not ready when it is in the error state.
 the input
========================================================
example6_i-a_t-0.3.v
 if (adv_en_i) begin
	kmac_data_o.valid = 1'b1;
	kmac_data_o.data = {IfBytes{1'b1}};
	kmac_data_o.ready = 1'b1;
 end else if (id_en_i) begin
	kmac_data_o.valid = 1'b1;
	kmac_data_o.data = {IfBytes{1'b1}};
	kmac_data_o.ready = 1'b1;
 end else if (gen_en_i) begin
	kmac_data_o.valid = 1'b1;
	kmac_data_o.data = {IfBytes{1'b1}};
	kmac_data_o.ready = 1
========================================================
example7_i-a_t-0.3.v
// todo:
// check if the last data is ready, if so, then we can accept the transaction
// if the last data is not ready, then we can accept the transaction
// todo:
// check if the last data is ready, if so, then we can accept the transaction
// if the last data is not ready, then we can accept the transaction
// todo:
// check if the last data is ready, if so, then we can accept the transaction
// if the last data is not ready, then we can accept the transaction
// todo:
// check if the last data is ready, if so, then we can accept the transaction
// if the last data is not ready, then we can accept the transaction
// todo:
// check if the last data is ready, if so, then we can accept the transaction
// if the last data is not ready, then we can accept the transaction

========================================================
example8_i-a_t-0.3.v
// this is not working
// it will work if the input is a single byte
// but if the input is a multibyte, it will not work
// so we have to use the input as a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array
// the input is a byte array

========================================================
example9_i-a_t-0.3.v
 if (adv_en_i) begin
	kmd_err_i = '0;
	kmd_err_o = '0;
	kmd_err_type_o = '0;
	kmd_err_type_s_o = '0';
 end
 else if (id_en_i) begin
	kmd_err_i = '0;
	kmd_err_o = '0;
	kmd_err_type_o = '0;
	kmd_err_type_s_o = '0';
 end
 else if (gen_en_i) begin
	kmd_err_i = '0;
	kmd_err_o = '0;
	kmd_err_type_o = '0;
	
========================================================
example10_i-a_t-0.3.v
 if the data is ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then we can accept the transaction
 if the data is not ready, then
========================================================
example11_i-a_t-0.3.v
 this should be done in a different way
 it is possible to have a different way of setting the value
 but this is not visible from the outside
 so we should use a different name
 this should be done in a different way
 the current way is not working
 it is possible to have a different way of setting the value
 but this is not visible from the outside
 so we should use a different name
 this should be done in a different way
 the current way is not working
 it is possible to have a different way of setting the value
 but this is not visible from the outside
 so we should use a different name
 this should be done in a different way
 the current way is not working
 it is possible to have a different way of setting the value
 but this is not visible from the outside
 so we should use a different name
 this should be
========================================================
example12_i-a_t-0.3.v
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else
// then
// FIX:
// if (adv_en_i)
// then
// else

========================================================
example13_i-a_t-0.3.v
 this should be a delay, but for now it will be a simple assign
 so that it can be used as a delay
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it will be a delay of 1 cycle
 it
========================================================
example14_i-a_t-0.3.v
// if (id_en_i)
// id_kmac_done_vld = 1'b1;
// else
// id_kmac_done_vld = 1'b0;
// end
// else
// id_kmac_done_vld = 1'b0;
// end
// end


// we don't need to check the data in this state
// because we are just sending the data
// and it will be checked in the next state
// so we just need to check the data in the next state
// if the data is not valid, we need to wait for the data
// to become valid
// if the data is valid, we can just continue
// if the data is not valid, we need to wait for the data
// to become valid
// we need to wait for the data to become valid
// if the data is valid, we can continue
========================================================
example15_i-a_t-0.3.v
 this should be done in the next cycle
 so the output is ready when the input is ready
 but we cannot use the input to determine when the output is ready.
 so we have to use the output to determine when the input is ready.
 this is a problem when the input is not ready but the output is
 we need to generate a signal to indicate when the input is ready
 and this cannot be done in the input itself.
 so we use a special flag to indicate the input is ready to be used
 and we have to use the output to indicate when the input is ready.
 the input is ready when the output is ready.
 the output is ready when the input is ready.
 the input is ready when the output is ready.
 so we have to use the output to indicate when the input is ready.
 this is a problem when the input is not ready but the output is
========================================================
example16_i-a_t-0.3.v
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example17_i-a_t-0.3.v
 it is possible that the last byte is not sent.
 if the last byte is not sent, the output will be
 interpreted as a "false" response.
 the only way to prevent this is to
 check the last byte of the output and
 if it is not equal to the input byte
 then return the error.

 the reason for this is that the
 output is interpreted as a "false" response
 if the last byte is not equal to the input byte
 and the output is interpreted as a "true" response
 if the last byte is equal to the input byte.
 this could be solved by always sending the
 last byte of the input, but this would
 require additional logic.

 the output will be interpreted as a "true"
 response if the input byte is equal to the
 last byte of the output.

 if
========================================================
example18_i-a_t-0.3.v
 if (adv_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (id_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (gen_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (adv_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (id_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (gen_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (adv_en_i
========================================================
example19_i-a_t-0.3.v
 it should be possible to have a transaction in progress
 and a new one with the same data, but with a different
 key.

 if the key is the same, then we can continue
 if the key is not the same, then we must reset the
 session, and start over.

 the reset should be done in the upper layer
 so that the upper layer can decide if it wants to
 accept the new key.

 the reset should be done in the upper layer
 so that the upper layer can decide if it wants to
 accept the new key.

 the reset should be done in the upper layer
 so that the upper layer can decide if it wants to
 accept the new key.

 the reset should be done in the upper layer
 so that the upper layer can decide if it wants to
 accept the new key.
========================================================
example0_i-a_t-0.5.v
951125

========================================================
example1_i-a_t-0.5.v
// if (adv_en_i)
// if (id_en_i)
// if (gen_en_i)
// end
// else if (adv_en_i)
// end
// else if (id_en_i)
// end
// else if (gen_en_i)
// end
// else
// end
// end
// end


// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------
// ----------------------------------------------------------------------------

========================================================
example2_i-a_t-0.5.v
// if (adv_en_i) begin
//	kmac_data_o.valid = 1'b1;
//	kmac_data_o.data = 8'b0;
// end else if (id_en_i) begin
//	kmac_data_o.valid = 1'b1;
//	kmac_data_o.data = 8'b0;
// end else if (gen_en_i) begin
//	kmac_data_o.valid = 1'b1;
//	kmac_data_o.data = 8'b0;
// end
// end

// update the current key
// the current key is stored in the last ID or gen entry
// depending on the key type
// we need to update the current key when:
// 1. the key is generated
// 2. the key is given to
========================================================
example3_i-a_t-0.5.v
 if (id_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (gen_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (adv_en_i) begin
 	kmac_done_vld = 1'b1;
 end
 else if (start) begin
 	kmac_done_vld = 1'b1;
 end
 else if (rounds == 0) begin
 	kmac_done_vld = 1'b1;
 end
 else if (rounds == 1) begin
 	kmac_done_vld = 1'b1;
 end
 else if (rounds == 2) begin
 	km
========================================================
example4_i-a_t-0.5.v
 we should enable the last block to calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the last block we should calculate the checksum
 if we receive the
========================================================
example5_i-a_t-0.5.v
// if (adv_en_i)
// then
// else if (id_en_i)
// then
// else if (gen_en_i)
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else
// then
// else

========================================================
example6_i-a_t-0.5.v
this is a work around for the problem that is in the implementation of the function.
when the input is not ready, the operation is still carried out.
we need to see if the input is ready to allow the operation to be carried out.
otherwise, we will have a delay of the input not being ready.
we can't check this directly in the function (as it is a conditional expression),
but we can check the output of the function, which is the result of the function.
the result of the function is the logic of the function, so if the output is ready,
then the input is ready.
this is the same problem that was encountered with the key generation,
a problem was encountered with the implementation of the key generation.
this problem has been fixed by changing the implementation of the key generation.
But the problem with the old implementation was that it would have been possible
========================================================
example7_i-a_t-0.5.v
 it should be done in one cycle
 but for now we have to use two cycles
 so we have to use a different function for the purpose
 todo:
 see if we can use the same function for both
 and use the one cycle to have the desired result
 ie: we have to use a different function for the purpose
 todo:
 can we use the same function for both the purpose and the one cycle
 todo:
 we have to use the same function for the purpose and the one cycle
 this should be done by the compiler
 it should be possible to have the same function for the purpose and the one cycle
 the problem is that the result is not the same,
 so it might need a bit more logic to handle this
 the result is the same when the operation is done in one cycle
 but we have to be a bit more careful when using the function
========================================================
example8_i-a_t-0.5.v
 the reason for the output of the valid is because of the
 issue of the output of the done, that is, the done is being
 called before the output of the done is set.
 the issue is about the validity of the data to be sent
 in the output.
 the alternative is to have a delay of the output of the done
 on the output of the done.
 the issue is that the validity of the data is not known
 when the done is called, so this could cause problems.

 the other way to solve this is to have a delay of the
 output of the done on the output of the done.
 the problem is that the output of the done is not
 known when it is called.

 the other way to solve this is to do not allow the
 done to be called before the output of the done.
 the problem is that
========================================================
example9_i-a_t-0.5.v
// invoke on the same cycle
//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);

//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);

//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(kmac_data_i.data);
//kmac_data_o.write(km
========================================================
example10_i-a_t-0.5.v
 this will prevent a "dead" session from going into a session
 that is not ready.
 the session is not ready because the message was sent
 and the message was not yet received.
 however, the message is in the sending queue, so we can
 tell that the message will be sent.

 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it is not dead either.
 the session is not ready, but it
========================================================
example11_i-a_t-0.5.v
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========================================================
example12_i-a_t-0.5.v
 it cannot be done like this, otherwise the upper layer will think the transaction is done
 while it is not, we have to use the output of the last operation
 it cannot be done like this, because the output of the last operation is assigned to a variable,
 and the variable is used to tell if the transaction is done.
 the only way is to use a variable in the output of the last operation
 so, we have to use a variable in the output of the last operation, and then
 we can use it to tell if the transaction is done.
 the variable is created here, and then it is used in the output of the last operation
 the variable is created for the sake of this implementation, and then it is used to
 determine if the transaction is done.
 the variable can be used to determine if the transaction is done, therefore,
 it cannot be used in the output of the last
========================================================
example13_i-a_t-0.5.v
 this is done in the next cycle
































































































========================================================
example14_i-a_t-0.5.v
// this is not the same as the above.
// We need to have the bit ready to be set.
// We have to wait for the bit to be ready to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// We need to wait for it to be set.
// This is not the same as the above.
// We need to wait for the ready to be set.
// We need to wait for the ready to be set.
// We need to wait for the ready to be set.
// We need to wait for the ready to be set.
// We need to wait for the ready to be set.

========================================================
example15_i-a_t-0.5.v
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========================================================
example16_i-a_t-0.5.v
// we have to use the same trick as in the StIdle state
// or we will have 2 waiting events
//
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//mikele
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========================================================
example17_i-a_t-0.5.v
 this should be done inside the kernel
 but I don't know how to do it
 so I use a semaphore to release the buffer
 see semaphore.v

 this should be done inside the kernel
 but I don't know how to do it
 so I use a semaphore to release the buffer
 see semaphore.v


 if (adv_en_i) begin



















































========================================================
example18_i-a_t-0.5.v
 this should be tested in a different way
 we could use a "test" function that will tell if it is ready
 if we use a test function, we have to make sure that
 the function is called from the correct thread.
 if we use a test function, we have to make sure that the
 call is always from the same thread.
 the problem is that the test function is called from the
 wrong thread and then the function is called from the right
 one.
 the problem is that the function is called from the wrong
 thread, so we should check this.
 the problem is that the function is called from the right
 one, so we should check this.
 the problem is that the function is called from the wrong
 one.
 the problem is that the function is called from the right
 one, but we have to check this.
 the problem is
========================================================
example19_i-a_t-0.5.v
// end
// else
// {KMAC_DONE_VLD_BIT_FREE} = '0';
// end

========================================================
example0_i-a_t-0.7.v
// Merlin:
// kosher of performance when rest/calc_rst is in use
// they are in the following order:
// 1. rest/calc_rst
// 2. the current key
// 3. the new key
// 4. the new key (must be done on several rounds)
// 5. the input data
// 6. the input data (must be done on several rounds)
// 7. The encrypted message
// 8. The encrypted message (must be done on several rounds)
// 9. the key used to encrypt the message
// 10. the encrypted message

// 11. the new key (must be done on several rounds)
// 12. the new key used to encrypt the message
// 13. the encrypted message
// 14. the key used to encrypt the message
// 15. the encrypted message
// 16. the new key (must be done on several rounds)
//
========================================================
example1_i-a_t-0.7.v
 optionally continue with next entry
 if (tx_en_i == 0 && is_last_entry) begin
 will crash silently otherwise
 impulse_continue_i = 1'b1;
 impulse_continue_i = 1'b0;
 impulse_continue_vld = 1'b1;
 end else
 impulse_continue_vld = 1'b0;
 impulse_continue_i = 1'b0;
 impulse_continue_vld = 1'b0;
 end
 else
 impulse_continue_vld = 1'b0;
 impulse_continue_i = 1'b0;
 impulse_continue_vld = 1'b0;
 end
 else
 impulse_continue_vld = 1'b0;
 impulse_continue_i = 1'b0;
 impulse_
========================================================
example2_i-a_t-0.7.v
 4802971 bytes, 16384-byte file (83MB), 7-byte file ID
 4860489 bytes, 11-byte file ID
 4802971 bytes, 16384-file (8.5MB)
 4860489 bytes, 11-byte file ID
4802971 bytes, 16384-file (8.4MB)
 4860411 bytes, 11-byte file ID
 4802971 bytes, 16384-file (8.3MB)
 4860911 bytes, 11-byte file ID
 4802971 bytes, 16384-file (8.2MB)
 4865911 bytes, 11-byte file ID
 4802971 bytes, 16384-file (8.1MB)
 4866911 bytes, 11-byte file ID
 4802971 bytes, 16384-file (8.0MB)
 4809111 bytes
========================================================
example3_i-a_t-0.7.v
 we have to be carefull in this case as it can bring unwanted delay
 if we using the same clock module than the one of the master.
 One possible solution is to play some clocked output before the 
 real data comes in.
 What we have to do is to have 1 clock edge in the middle of the frame
 to give a delay of 300ms as spec required
 it's possible to check for some special situation
 1. the frame is accepted.
 2. the data is sent, then the frame end comes.
 3. the clock pulse comes within the frame at the exact place.
 => it looks like a valid frame.
 We don't know if the frame will be accepted by the driver
 so we have to wait a bit after the last sample of the frame
 to be sure there is no more data coming
 This is the situation:
 1. the
========================================================
example4_i-a_t-0.7.v
 should give back the raw bytes from the input
 and leave the other raw bytes alone.
 eg, could use {IfBytes{1'b1}} instead of IfBytes, but then other
 bytes wouldn't be used.

 to get back the raw bytes, use the output 1 byte of the previous function.
 eg, {LastGenOut[0]} instead of {LastGenOut[31:24]}

 however, this would leave the other bytes as-is.
 the other bytes are probably just not needed (ensuring the format is not being
 compromised). These could be used in the future to allow for more advanced
 operations.

 the bytes being sent on the wire are reversed, as it is easier for the receiving
 party to parse the stream. This is the reason the bytes are in reverse order.
 the bytes in the rawdata_i are the
========================================================
example5_i-a_t-0.7.v
// intrinsics should accept bytes instead of fixed
// however, the fix is here for now
// ie.
// it works, if it runs the proper way.
// the other way it does not work.
// if it is a uint64, it will be interpreted as a
// byte array.
// So, we want to use the better way.

// Thoughts (for the future):
// it might be better to use a translated version of the fixed values
// and then use bytes.
// however, this should be done in the future for support in ints/floats
// maybe we need to use a special code which means it is a double and
// has to be translated to a normal double.

// is it better to use the byte array version, and edit it to
// make it a double value?
// well, it works, so it is better.

// a: this needs to
========================================================
example6_i-a_t-0.7.v
output dut_data_i;
jtag_hub_io.jtag_hub_inst.dut_data_i = dut_data_i;

========================================================
example7_i-a_t-0.7.v
// bytearray_to_bytearray_job
// TODO: could save one byte by sending more data in the last cycle
// Advantage:
// we won't lose any data since the entire payload is expected to be
// received at once.
// Disadvantage:
// we send more cycles to receive the data.
// SOLUTION:
// Look at the byte_array_to_bytearray_job
// we need to get the data out before we can parse it
// we would need to have 2 stage parsing.
// The 2nd stage would be a task, that would have to be created,
// where as the code is already running on this thread.
// So to do that we need to have a way to pass the data as byte array
// to the main task that would be created. The mini project also has
// a byte array solution
//
//


//
========================================================
example8_i-a_t-0.7.v
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.
// one day, use kmap_s.

// endpoint can only be set from dev_io, not from lib
// endpoint = {IfBytes{1'b1}};
//
========================================================
example9_i-a_t-0.7.v
// not_valid_ticks = 1'b1;
//
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========================================================
example10_i-a_t-0.7.v
// thought the old way of doing it, it could be possible to keep it after the transaction
//	part of the cycle has been spent in the cache.
//
//	so, for now do not allow this code to run, until the above method is changed

//	WARN:
//	This can lead to a severe stall of the processor as the cache and the cpu will be waiting for each other.
//	Also, it's likely that the very first cycle of the stream will be lost with the cache not being ready.
//	MERGED:
//	It's possible to merge the 2 blocks of code together, as the above method is doing it.
//	It's also possible to have a delay of 1 cycle between byte input and byte output,
//	which would lead to a very very high bandwidth.
//	MERGED:
//	Unfortunately it seems the only way to have a proper working
========================================================
example11_i-a_t-0.7.v
// better way to detect if byte is ready?
// if the byte is ready, the slot is used for another byte
// we have a 4 byte buffer. If the byte is ready we continue with the buffer
// otherwise we reset the buffer and signal done



========================================================
example12_i-a_t-0.7.v
 so it will not be processed until ack comes from the other side.
 but this side will take care of the sending ...
 this should be fixed

========================================================
example13_i-a_t-0.7.v
// a) we should reset the ready flag when input is received and
// b) we should check the ready flag before increasing counter
// FIX:
// a) ready should be set to zero if new data is coming in
// FIX:
// b) the idea is to keep a counter that indicates how many times the data has been sent.
// The counter should be updated only if input is received
// (in order to prevent the "counter overflow" problem)
// NOTE:
// The counter should be increased only if the input is received.
// When the "transmission interval" is reached, the counter
// should be reset in order to start counting the new data
// in the next interval of time
// **************************************************************


always @(posedge clk) begin

if (rst_i == 1'b1) begin

// make sure we have some data to transmit
if (Pipel
========================================================
example14_i-a_t-0.7.v
 kenny.karpenter@gmail.com
 OMG!
 this is the very last block and it is not coming from the buffer!
 we need to clear the done cause otherwise it will be cleared by the next command
 you might think that the counter is not incremented in this block but it is.
 the reason is: the buffer is flush by itself
 or the way it works: before sending a command, the buffer is flush for some time.
 so, if we are done, the counter should be 0.
 but, during the last block, the buffer is flush and we are sending the data from the
 device, so we cannot jump to the next block.
 that's the reason.
 it is expected that the last block contains a command
 and so, we need to wait for a bit the buffer to be clear.

 we need to handle the case when the
========================================================
example15_i-a_t-0.7.v
 this is tricky, but if the data is not ready then it would be a bulk transfer
 and thus start-of-frame. So we have to set the DONE bit to 1.
 as well the FSM must be wait for the data to come
 we have to retain the last bits from the data
 so, we just wait the data to appear and then start the frame
 when doing a bulk transfer, the data will be ready immediately
 and there will be no delay between the start-of-frame and the bulk transfer
 at this point we have to indicate the done for the frame and then launch the frame
 it's not possible to have a bulk transfer in a frame
 so, we have to discard the frame and do the next one...
 this is done for now, but a bulk transfer should be allowed in a frame
 without this the frame cannot be used
 todo: decide if
========================================================
example16_i-a_t-0.7.v
wrong place
this will generate a warning
this will generate a wrong error if the output is different that was expected
but we would have to change it to fixed size array
this should be the last operation, this message is generated
the next operation is shown in the output
the problem is that when the input is read, the operation would finished with a
wrong value, so the real value is compared to the expected value, the operation
has passed if the expected value is the same, otherwise the output is
compared to the expected value and it will pass if the values are the same
to do this we have to use a proper output value
we can do this by trying to read the value before the operation
we can do this by using a complex output value
but we need to make sure that the read output is not the result of a
concatenation operation, or else
========================================================
example17_i-a_t-0.7.v
// // TODO: implement P2P and MIC
// // if device is P2P, then accept bytes
// // if is MIC, then wait for MIC before accept bytes
// // if device is P2P and MIC has been detected, then accept bytes
// // otherwise, wait for ack of last message to accept bytes
// // if device is P2P, then accept bytes
// // if device is MIC, then wait for MIC to verify MIC before accept bytes
// // if device is P2P and MIC has been verified, then accept bytes
// // otherwise, wait for ack of last message to accept bytes
// // if device is P2P, then accept bytes
// // if device is MIC, then wait for MIC to verify MIC before accept bytes
// // if device is P2P and MIC has been verified, then accept bytes
// // otherwise, wait for ack of last message to accept bytes

========================================================
example18_i-a_t-0.7.v
//995/Dec11, 11:49
//Max, 10/11: 59.5
//Mac, 11/23/11: 5.92
// Kryo, 10/14/11: 5.68

// ** 12月8日, 23:02
// ** 11:59.5
// ** 12:11
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:58.5
// ** 11:
========================================================
example19_i-a_t-0.7.v
// yet another issue, when the last tx reaches it will not get processed.
// this is a temporary solution which will be taken care of by the disassembler
// after the application is done.
// I think that a better solution is to set a flag on the last input 
// and then determine if it is done. So, can we have such a flag in
// the function before the application is done?

// end of this function
//`include "../../../../../../../../../../../../../../../../../../../../..//////Pipe_r_f_i/source/Pipe_r_f_i.v"
//`include "../../../../../../../../../../../../../../../../../../../../../..//////Pipe_r_f_i/source/common_tasks.v"
//`include "../../
========================================================
example0_i-a_t-0.9.v
 evenings on osx
 when run in a terminal window:
 fixme, in compiler find this bug
 run: so describe. :)
 hangs on the line to boot until a hide window is
 created, then this run will get "no action" for 5 seconds
 maybe is edge triggered, that would be best?

 after so describe,
 run in a terminal window
 describe simulation takes 2 5-secs

 these setter methods with the time could also be run in parallel
 to make a top spin time of 10-20 seconds

 with a django test database this can run for minutes without
 throwing errors
 set the simulation with the debug module
 - the Xi 2000 will throw an error message when it reaches
 the timeout time of 20 seconds.

 this can be trimmed down to 75-100 sec and give the the ability

========================================================
example1_i-a_t-0.9.v
//  349  0  1
//  0  0  1
//  11  0  1
/*  \   ^   j   \ \   ^    \   $   \   ^   r   V   \§ 4 
   \   $   \   s   t   \   \   L   \   $     4®

   \   L   \   <   3   \   i   \   >   T

   \   l   \   <   3   \   i   \   >   T

   \   i   \   <   3   \   t   \   
========================================================
example2_i-a_t-0.9.v
// eminent

// DO NOTHING!
// iam concerned, nothing would be done if the
// length is less than 0 and the following code will be
// unsafe. We do not need the length to be zero, it
// just needs to be less than 0 and it need the first bit
// to be 0.
//��▼
// by sam serialize
// مثل عدد اي باءما أو؁ قميدتا استداءهاتانما برة هذه الدي
// lambda عدف المجذه الفاباهي
// simpleserial_cycleclk(clk)
// extends simple serial connection

// if (ready && ie&d&r&s&0)
//
========================================================
example3_i-a_t-0.9.v
kmac_done_vld = 1'b1;

========================================================
example4_i-a_t-0.9.v
 ended up with an fast-move to the mac in the middle of the packet!
 i think the first few bits of the generated byte should be randomized
 so that when the key-extraction code is run it receives
 a resetting byte sequence so it can be done cleanly
 (alternately a byte can be packed in 1536 bits as a MAC address)

 We had an issue where the byte came out as zero, this is somewhat
 unlikely to ever happen...

 OK so we need to perform a reading of a file and then dump it out to 
 a text file.
 The problem is that the file reading takes a long time and it's not
 running in the background at this point... So we have to support both
 reads, a pipelined read and a blocking read!

 so ... according to what we've been up to so far the blocking
========================================================
example5_i-a_t-0.9.v
// if (adv_en)
//apse
// Virtpsafe_pulse(1'b1);
// else
//apse


 partnerships
 //if (startdiv) begin
// div_crom_cmd = aiftpm(8'h1);
// to_aes_enc = aes_enc_round(comp_aes_enc, 1336 * 8);


========================================================
example6_i-a_t-0.9.v
  (optional) write back anticosid..
  (comment out next line if it is commented out before)
  /*this is the future delay to improve writebac performance, might need
 60/* minutes to go back to back)
 ->output:o_operation_result : lv_car_reg_t
 --> output:o_operation_result : lv_car_reg_t
 */
  (comment out the line above if it puked before)
 forever:	->output:o_operation_result : lv_car_reg_t
  --> output:o_operation_result : lv_car_reg_t
 ol_dly.v defines the delay queue..
 define outputhandle_data
 assign outpithandle_data = (cachem_plus_data_o
========================================================
example7_i-a_t-0.9.v
// {: was evaluated before assignment
// therefore the element assignment is never done
// therefore the output would never be calculated properly
// you have to trigger this manually from the top module
// when at the right place the element shouldn't be used again
// and the new prepared element is assigned
// using advanced
//query_prepare.triggerQuery

 //start end
// do not use this result
//query_stored.listenOnce
'

========================================================
example8_i-a_t-0.9.v
//this should be done at the surface level so that there is no delay from the function call to the output.
//the cache block will initialize the output stream with fixed size.
//fixed rate/period=1/100_msec, fixed rate way
//fixed rate/period=500_msec, fixed rate way
//fixed rate/period=11_msec, fixed rate way
//if it goes over in that time then we advance. so no chance to overrun the cycle.

//pad the block so that no data goes to the length byte
//a trick would be to wait after the data and before then send the 0 byte

//eid mechanism should be changed after the new cache
//this is the code that is in the start of the messages, and it is added
//one code is zero

//once after a certain amount of time, we see that it has been sent.
//we begin the
========================================================
example9_i-a_t-0.9.v
//osate.
//tools99259_vhash.exe v1.1.0.RC.exe this external script will v-hash the file
//the input file.

//izations. TODO
//
//$ID: 
//()
//Group: 
//Description of the Oracle Module:
//Inherited from the Mojo Project.
//https://oracle.github.ignoralex.com/documentation/this-documentation-is-viable-and-will-load/ and can be found on the plex web app under "Oracle audits.
//
//
//Plugin: xml_converter
//Component: xml_converter
//
// Author	: Amit Kumar Singh
// https://github.com/amitkuck001
//
// Version	: 1.0
// https://github.com/amitkuck100/Package
========================================================
example10_i-a_t-0.9.v
 rehensively being able't understanding how it runs
 the flag of this module is not set if all the given input is '0',
 so we would have a timing issue where we could be sure that it is not done
 this is needed to make sure we don't do something like this:
 1) send a packet
 2) switch m/c off
 3) m/c is idle on this port

 we need to mark the request as done
 this may be a problem if this is the last request in a round
 the enterspin module shouldn't be reset on write

 we delay the communication by 1 cycle
 otherwise we may get a false positive result
 this is a W negative race in case we check before the accept operation happens
 should we even care?
 should we keep the accept operation open until the Tx is done so that we don't lose data
========================================================
example11_i-a_t-0.9.v
// servings as a container for storing the data
// (can create the external buffer from the internal one
// so we can store a pointer to a buffer)
// storing a pointer to a buffer implementation
// elements of buffer (granted by a simple memory block)
// buffer assigned in the buffer (ensure also pointer to that buffer)


========================================================
example12_i-a_t-0.9.v
//
//asons:\`('e' is clear string, \` means any character. must hide the token for other character)

//$.S::(.^'% '\`)"`%>=.="
//$.S::(.^'% '\`)"%>=.="
//$S::(.^'% '\`)"%>=.="
//$S::(.^'% '\`)"%>=.="
//$S::(.^'% '\`)",%>=.="
//$S::(.^'% '\`)",%>=.="
//$S::(.^'% '\`)",%>=.="
//$S::(.^'% '\`)",%>=.="
//$S::(.^'% 
========================================================
example13_i-a_t-0.9.v
// }



========================================================
example14_i-a_t-0.9.v
// if the receive input goes no ack then set the done to be 1 instead of the current stored one.
// if the ouput is ready it will set the done to 1
// 
// for the reason of the second case see below
/*
/// this doesn't work
// this is required, not only for the reconstruction.
// the problem is the order in phi is kept, but the sbox. The output will be the same
// with the same order.
// it would be killed by the sbox.
// 
// the changing part of the recog and the key gen is limited by the mux and the 128bit wire
// in fact, the schedule should be ordered.
// the actual changing part is the output of the layer.
// we can make the layer palatable, but we don't know the signature.
// Maybe, we get a new version of the AES cryptor and is
========================================================
example15_i-a_t-0.9.v
//string key out = aes_given_key_exp_cont_cipher.get_hash_of_sec_prefix_of_key_in_algo_key_custom_generic_key_sche_generic_key_exp_cont_cipher.get_output_of_hash_in_algo_key_custom_generic_key_sche_internal;
//string key out = aes_given_key_exp_cont_cipher.get_output_of_hash_in_algo_key_custom_generic_key_sche_internal;
//string key out = aes_given_key_exp_cont_cipher.get_one_of_output;
//string value = aes_given_key_exp_cont_cipher.get_one_of_output;


string key = aes_given_key_exp_cont_
========================================================
example16_i-a_t-0.9.v
uine_flag_set = 1'b1;

========================================================
example17_i-a_t-0.9.v
// Zoey
//2641414
//justice zhao;

template<class N,class T>
int getID(int startID,int Num,T *dataArray){
	int id = startID;
	int index = 0;
	int i;
	full_adder FID_ADD_ID(id,IdArr[index].Id,1'b1,1'b1);
	full_adder FID_USE_ID(index,IdArr[index].UsedIn,1'b1,1'b1);
	for(i = 0; i < Num; i = i + 1)begin
 	full_adder FID_SUB_ID(id,IdArr[index].Id-i,1'b1,1'b1);
	full_adder FID_USE_ID(i,IdArr[index
========================================================
example18_i-a_t-0.9.v
\
// stop visualization of bidirectional buffers
// \
//
// uninitialized variable: you have started from the wrong source definition, i will deploy a message to the user
// if not initialized properly: you need to initialize valuable variables to properly run your testbench
// then try running in execution mode: logging simply enables the testbench to run without tabs
//\
//\
// optimize plan 6, wide mm\
//
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//variables

//`define for case type enumeration
`define enum C_DISTRIBUTION_TYPE
`define enum C_MECHANISM_TYPE
`define enum C
========================================================
example19_i-a_t-0.9.v
/*
//this is a validated output, but the output itself will be accessed later, suggesting the usage of an output.
//we have to wait for the output also to be sure that the user can get a value from that output

//FIX:

//this step needs to be here..but i'm not sure how to convert it..
//what if output is used, the value is passed outside the boundary. perhaps in another scope.
//the original file can have a valid value for the type "Output" and this can be extended to a "C" type too.
//however, based on the type generated the user should pray over value that is generated..
/*
// doing in single step
*/

//
========================================================
example0_i-b_t-0.1.v
 this is a temporary solution to prevent the issue
 that the done signal is asserted before the data is ready
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.
 the issue is that the data is ready, but the done signal is
 asserted before the data is ready.

========================================================
example1_i-b_t-0.1.v
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========================================================
example2_i-b_t-0.1.v
 it is possible that the last block is not sent.
 if the last block is not sent, the done signal will be asserted
 before the data is sent.
 the data is sent in the next cycle.
 therefore, we have to keep the done signal as it is.
 the done signal will be asserted when the last block is sent.
 the done signal is asserted when the last block is sent.
 therefore, we have to keep the done signal as it is.
 the done signal is asserted when the last block is sent.
 therefore, we have to keep the done signal as it is.
 the done signal is asserted when the last block is sent.
 therefore, we have to keep the done signal as it is.
 the done signal is asserted when the last block is sent.
 therefore, we have to keep the done signal as it is.
 the done signal is asserted
========================================================
example3_i-b_t-0.1.v
 This is a work around for a known issue that the output is not always
 asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is that the output is not asserted when the input is ready.
 The issue is
========================================================
example4_i-b_t-0.1.v
// this is a temporary solution to prevent the issue
// that the done signal is asserted before the data is ready
// the issue is that the data is ready, but the done signal is still asserted
// this causes the issue that the data is ready, but the done signal is not yet asserted
// this issue is caused by the fact that the data is ready, but the done signal is not yet asserted
// the done signal is asserted after the data is ready, but before the data is ready
// this is a temporary solution to prevent the issue
// until the data is ready, the done signal is asserted
// this is a temporary solution to prevent the issue
// until the data is ready, the done signal is asserted
// this is a temporary solution to prevent the issue
// until the data is ready, the done signal is asserted
// this is a temporary solution to prevent the issue
// until the data is ready, the done signal is asserted

========================================================
example5_i-b_t-0.1.v
 this is a temporary solution to prevent the issue.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the last byte is written in the next cycle.
 however, the last byte is not written until the
 the current cycle is finished.
 so, we have to wait for the next cycle to write the last byte.
 this is a temporary solution to prevent the issue.
 the issue is that the last byte is not written until the
 the current cycle is finished.
 the last byte is written in the next cycle.
 so, we have to wait for the next cycle to write the last byte.
 this is a temporary solution to prevent the issue.
 the issue is that the last byte is not written until the
 the current cycle is finished.
 the last byte is written in the next cycle.
 so, we have to
========================================================
example6_i-b_t-0.1.v
// this is a temporary fix for the issue.
// the issue is that the done signal is not asserted until the last
// byte is written.
// the issue is that the done signal is not asserted until the
// write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.
// the issue is that the write operation is not completed until
// the write operation is completed.

========================================================
example7_i-b_t-0.1.v
 this is a temporary solution to work around the issue that the
 done signal is not asserted until the last clock cycle of the
 current operation.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation may be
 terminated by another operation before the last clock cycle.
 the result is that the done signal is not asserted at all
 when the operation is terminated by another operation.
 the following code is a temporary solution to work around
 the issue that the done signal is not asserted until the
 last clock cycle of the operation.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation may be
 terminated by another operation before the last clock cycle.
 the result is that the done signal is not asserted at all
 when the operation is terminated by another operation.
 the following
========================================================
example8_i-b_t-0.1.v
 if the input is ready, then the output is ready
 if the input is not ready, then the output is not ready
 this is a problem with the output being asserted before the input is ready
 the output should be delayed by one cycle
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the
========================================================
example9_i-b_t-0.1.v
 this is a temporary solution to work around the issue that the
 done signal is not asserted until the last clock cycle of the
 current operation.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation is already
 done by that time.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation is already
 done by that time.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation is already
 done by that time.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation is already
 done by that time.
 the issue is that the done signal is not asserted until the
 last clock cycle of the operation, but the operation is already
========================================================
example10_i-b_t-0.1.v
 if the input is ready, then the output is ready
 if the input is not ready, then the output is not ready
 this is a problem with the output being asserted before the input is ready
 the output should be delayed by one cycle
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the output should be delayed by the input's length
 the
========================================================
example11_i-b_t-0.1.v
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========================================================
example12_i-b_t-0.1.v
 this is a work around for a race condition that happens when the
 done signal is asserted before the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the data is not ready until after the
 done signal is asserted.
 the work around is to check the done signal and only
 assert the done signal when the data is ready.
 the issue is that the data is not ready until after the
 done signal is asserted.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the data is not ready until after the
 done signal is asserted.
 the issue is that the data is not ready until after the
 done signal is asserted.
 the issue is that the data is not ready until after the
 done signal is asserted.

========================================================
example13_i-b_t-0.1.v
 if the data is ready, then the done signal is not asserted until the
 the last byte is written to the bus.

 if the data is not ready, then the done signal is asserted immediately
 upon the write operation.

 if the data is ready, then the done signal is asserted only after the
 the last byte is written to the bus.

 if the data is not ready, then the done signal is asserted immediately
 upon the write operation.

 if the data is ready, then the done signal is asserted only after the
 the last byte is written to the bus.

 if the data is not ready, then the done signal is asserted immediately
 upon the write operation.

 if the data is ready, then the done signal is asserted only after the
 the last byte is written to the bus.

 if the data is
========================================================
example14_i-b_t-0.1.v
 this is a temporary fix for the issue
 the output is not always ready when the input is ready
 the issue is that the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not ready when the input is ready
 the output is not
========================================================
example15_i-b_t-0.1.v
 if the input is ready, then it is safe to assume that the output is also ready.
 The output is ready when the output is not empty.
 The output is not empty when the output is not full.
 The output is full when the output is full.
 The output is not full when the output is not full.
 The output is not full when the output is not full.
 The output is full when the output is full.
 The output is not full when the output is not full.
 The output is not full when the output is not full.
 The output is full when the output is full.
 The output is not full when the output is not full.
 The output is not full when the output is not full.
 The output is full when the output is full.
 The output is not full when the output is not full.
 The output is not full
========================================================
example16_i-b_t-0.1.v
 this is a temporary solution to prevent the issue.
 the issue is that the done signal is not asserted until the last
 byte is written.
 the better way to do this is to use a different state machine
 that tracks the number of bytes written.
 the done signal will be asserted when the last byte is written.
 the done signal will be asserted when the last byte is written
 and the state machine will be in a state that is the
 the number of bytes written.
 the done signal will be asserted when the last byte is written
 and the state machine will be in a state that is the
 the number of bytes written.
 the done signal will be asserted when the last byte is written
 and the state machine will be in a state that is the
 the number of bytes written.
 the done signal will be asserted when the last byte is written
 and the state machine
========================================================
example17_i-b_t-0.1.v
 this is a work around for a race condition that happens when the
 done signal is asserted before the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that the done signal is not properly asserted
 when the data is ready.
 the issue is that
========================================================
example18_i-b_t-0.1.v
// this should be done in the same cycle as the last write to the
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example19_i-b_t-0.1.v
 this is a temporary solution to prevent the issue.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until the
 the last byte is written.
 the issue is that the done signal is not asserted until
========================================================
example0_i-b_t-0.3.v
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example1_i-b_t-0.3.v
// it is possible to receive a frame before the last one is sent
// we need to use the last one to generate the output
// this is the only way to do it
// alternatively, we can use a different output buffer
// and use the last frame to generate the output
// this is the way we are doing it
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========================================================
example2_i-b_t-0.3.v
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========================================================
example3_i-b_t-0.3.v
 this will work but it will be delayed by one cycle
 the done signal is delayed by one cycle from now.
 the issue is that the last cycle of the last word is not getting
 through.
 it will be delayed by one cycle from now.
 so we have to use the same trick as in the
 adv_en_i case above
 this is the only way to get it to work.
 the done signal is delayed by one cycle from now.
 the issue is that the last cycle of the last word is not getting
 through.
 if we use the same trick as in the adv_en_i case
 then we have to use a different trick than the adv_en_i case.
 the trick is to use a delayed version of the done signal
 and that works.
 so, we have to use the same trick as in the adv_en_i
========================================================
example4_i-b_t-0.3.v
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========================================================
example5_i-b_t-0.3.v
 this is a hack to prevent a race condition
 between the data being ready and the done
 being asserted.

 the data is ready when the
 the last byte of the data
 is written.

 the done is asserted when the
 the last byte of the data is written

 the data is ready when the
 the last byte of the data is written

 the done is asserted when the
 the last byte of the data is written

 the data is ready when the
 the last byte of the data is written

 the done is asserted when the
 the last byte of the data is written

 the data is ready when the
 the last byte of the data is written

 the done is asserted when the
 the last byte of the data is written

 the data is ready when the

========================================================
example6_i-b_t-0.3.v
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========================================================
example7_i-b_t-0.3.v
 the following line is commented out because it is not needed.
 the done signal is now generated in the FSM and it is
 safe to be released early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done signal is now generated in the FSM and it is safe to release early.
 the done
========================================================
example8_i-b_t-0.3.v
 if the input is not ready, then it will be in the middle of a transaction.
 the done signal should be generated only when the transaction is completed.
 the input should be ready only when the transaction is complete.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.
 the done signal should be generated only when the input is ready.

========================================================
example9_i-b_t-0.3.v
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========================================================
example10_i-b_t-0.3.v
 if the input is ready, then the output is ready.
 The output is ready when the input is ready.
 The input is ready when the output is ready.
 So, the input and the output should be in the same
 time domain.
 However, the output is ready when the input is ready.
 So, the input and the output should be in the same time
 domain.
 Therefore, the input and the output should be in the same
 time domain.
 The output is ready when the input is ready.
 So, the input and the output should be in the same time
 domain.
 Therefore, the input and the output should be in the same
 time domain.
 The output is ready when the input is ready.
 So, the input and the output should be in the same time
 domain.
 Therefore, the input and the output should be
========================================================
example11_i-b_t-0.3.v
 this is a temporary fix for the issue until the code is fixed
 the issue is that the done signal is not asserted until the last byte is received
 this will prevent the testbench from receiving any more data
 this will also cause the testbench to hang for a few seconds
 the issue is that the last byte is not received properly
 the output is that the last byte is received correctly, but the the testbench hangs for a few seconds
 the testbench is able't hang until the last byte is received
 the testbench will continue to run until the last byte is received
 the testbench should be able to run for a few seconds
 the testbench should be able to run for a few seconds
 the testbench should be able to run for a few seconds
 the testbench should be able to run for a few seconds
 the testbench should be able to run for a few seconds
 the test
========================================================
example12_i-b_t-0.3.v
 this is a temporary solution
 the issue is that the last block is not returned
 until the operation is complete.
 we need to wait for the operation to complete
 before we can return the result.
 we need to have a way to signal that the operation is complete.
 we need to have a way to signal the result of the operation
 so that we can return it.
 we need to have a way to signal the result of the operation
 to the calling method.
 this is a temporary solution for now.
 the best solution is to have the calling method
 provide a way to return the result of the operation.
 the operation should be able to return the result
 when it is done.
 the operation should be able to return the result
 as it is done.
 the operation should be able to return the result
 as it is done.
 the operation
========================================================
example13_i-b_t-0.3.v
 this is a temporary fix for the issue of the done signal being asserted early
 the issue is caused by the use of the "logical operators"
 the issue is known as: https:github.com/opencores/ocsim/pull/1
 the issue is known to be caused by the use of the "logical operators"
 the issue is known as: https:github.com/opencores/ocsim/pull/1
 the issue is known to be caused by the use of the "logical operators"
 the issue is known as: https:github.com/opencores/ocsim/pull/1
 the issue is known to be caused by the use of the "logical operators"
 the issue is known as: https:github.com/opencores/ocsim/pull/1
 the issue is known to be caused by the use of the "
========================================================
example14_i-b_t-0.3.v
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========================================================
example15_i-b_t-0.3.v
 this is a temporary fix for the issue
 the issue is that the done signal is asserted before the frame is sent out.
 the test bench is not able to catch the issue.
 the issue is that the done signal is not asserted until the frame is sent out.
 the test bench will catch the issue.
 the issue is that the done signal is not asserted until the frame is sent out.
 the test bench will catch the issue.
 the issue is that the done signal is not asserted until the frame is sent out.
 the test bench will catch the issue.
 the issue is that the done signal is not asserted until the frame is sent out.
 the test bench will catch the issue.
 the issue is that the done signal is not asserted until the frame is sent out.
 the test bench will catch the issue.
 the issue is that the done signal is not asserted until the frame
========================================================
example16_i-b_t-0.3.v
 it is not clear how to determine if the last block is sent
 so we will just wait for the next output
 this is not ideal, but we have to wait for the output before we can determine
 if the last block was sent.

 we have to use a different method to determine if the last block was sent
 so we can determine if the last block was sent.

 we can use the same method as the output is generated.
 the output is generated when the last block is sent.

 so we have to use a different method to determine if the last block was sent.

 the output is generated when the last block is done.
 so we have to use a different method to determine if the last block was sent.

 the output is generated when the last block is done.
 so we have to use a different method to determine if the last block
========================================================
example17_i-b_t-0.3.v
 it is possible to have a race condition between the last
 write operation and the done signal.
 this is a known problem and the solution is
 to use a global variable to synchronize the
 done signal.
 the done signal must be synchronized
 so that it can be used as a trigger
 in a different thread.
 the done signal must be synchronized
 so that it can be used as a trigger
 in a different thread.
 the done signal must be synchronized
 so that it can be used as a trigger
 in a different thread.
 the done signal must be synchronized
 so that it can be used as a trigger
 in a different thread.
 the done signal must be synchronized
 so that it can be used as a trigger
 in a different thread.
 the done signal must be synchronized
 so that it can be used as a trigger
 in
========================================================
example18_i-b_t-0.3.v
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========================================================
example19_i-b_t-0.3.v
 if the data is ready then the done signal is not generated.
 this is a known issue of the implementation.
 the issue is that the done is generated when the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
 the issue is that the done is generated after the
 the last byte is received, which is not the expected
========================================================
example0_i-b_t-0.5.v
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========================================================
example1_i-b_t-0.5.v
 This is a temporary fix for the issue
 as it is not expected that the last buffer
 of the message is sent out first
 we will have to use a different method
 to determine the end of the message
 or we can use a different function
 that is called when the buffer is sent
 so we can use a different value to
 determine the end of the message
 so that we can send the message out
 before the last buffer
 so the first buffer will be sent out
 before the last buffer

 FIX:
 This is a temporary fix for the issue
 as it is not expected that the last buffer
 is sent out before the first buffer
 we will have to use a different method
 to determine the end of the message
 or we can use a different function
 that is called when the buffer is sent
 so we can use a different value
========================================================
example2_i-b_t-0.5.v
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example3_i-b_t-0.5.v
// if the data is ready, then the data can only be accepted
// otherwise, data will be accepted on the next cycle
// end
// end

// resetting the counter
// FIX: this might be a problem with the implementation of the
// counter
// the counter should be reset when the data is ready
// but we have to wait for the data to be ready
// thus we have to increase the counter
// this is a problem with the current implementation
// we have to use a counter to store the data
// before it can be used.
// the counter should be increased when the data is ready
// to allow the data to be used
// the counter should be reset when the data is ready
// to allow the data to be used immediately
// the counter should be reset when the data is ready
// to allow the data to be used immediately

// we need to remember the data in the buffer
// and
========================================================
example4_i-b_t-0.5.v
 on the other hand it may be the problem of the driver,
 because it does not wait the required time
 so we have to use the timeout
 However, this may be a known issue of this driver,
 so we should not use it at all.

 so, we use the timeout
 we do not use the timeout for now





























































========================================================
example5_i-b_t-0.5.v
 TODO:
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key generation
 we should not run the key generation again.
 if we got it right on the first iteration of a key
========================================================
example6_i-b_t-0.5.v
 This is the only place where the done signal is set.
 The done signal is set in the same cycle it is set.
 The input ready signal is set at a later cycle than the
 the done signal is set.
 It is possible that the input ready is set before the
 done signal is set. This results in a race condition.
 The input ready should be set after the done signal is set.
 The issue is that the input ready is set one cycle after
 the done signal is set. This is low frequency compared to
 the done signal, and so a race condition does not arise.
 However, a delay is needed between the time the done
 signal is set and the time the input ready is set.
 The issue is that the input ready is set one cycle after
 the done signal is set.
 The done signal is set one cycle after the input ready
 is
========================================================
example7_i-b_t-0.5.v
 This might be a problem with how the output is triggered.
 It might be possible to advance the output even if the last
 output is not yet done.
 However, this might be a problem if the input is not
 coming in fast enough.
 It might be possible to advance the output
 when the last output is done.
 However, there is no guarantee that the output will
 be advanced fast enough.

 I'm guessing that the output is advanced.

 It seems that the output is advanced
 and the last output is done.


 if (out_i.ready)
 out_i.valid = 1'b1;

 if (out_i.ready)
 out_i.valid = 1'b1;

 if (out_i.ready)
 out_i.valid = 1
========================================================
example8_i-b_t-0.5.v
 this is a race between the master and the kernel.
 the issue is that the kernel will see that the master has
 completed the transaction, and thus stop waiting.
 but the master is still in the process of sending the
 next transaction.
 the issue is that the master needs to hold data in memory
 until the transaction has been completed.
 the solution is to have the master hold data in memory
 until the kernel is done with the data.
 thus, the master must wait for the kernel to acknowledge
 the completion of the transaction.
 the solution is for the kernel to call the master when it
 is done with the data, and the master can then release the
 data.
 the problem is that the kernel is not allowed to
 acknowledge completion of the transaction until after
 the master has been released the data.
 the solution is to have the kernel call the master when
========================================================
example9_i-b_t-0.5.v
// this will be "fixed" once the DONE pin is released
// the issue is that the DONE pin will not be released until the
// output stream is closed.

// we have to set the output stream to done manually
// once the output stream is closed the done signal will be
// released.
// we have to use this flag to prevent the done to be released
// until the output stream is closed.
// the flag will be set in the output stream's close function
// if the flag is set then the done pin will be released.
// currently this is the responsibility of the upper layer
// to release the done signal.

// this is the flag that indicates that the done pin
// is released.
// the flag is set in the output stream's close function
// if the output stream has the flag set.
// the flag will be released when the output stream
// is closed.

//
========================================================
example10_i-b_t-0.5.v
 the following line will be commented out as we don't need this
 the current implementation is like this:
 - a. a. the current implementation is to return the data
 - b. the data is returned in the next cycle
 - c. the data is returned in the next cycle
 - d. the data is returned in the next cycle and the
 - e. the data is returned in the next cycle.
 - the current implementation is the one that returns the data in the next cycle
 - the implementation that returns the data in the next cycle and the data
 - in the next cycle is not supported.
 - the implementation that returns the data in the next cycle and the data
 - in the next cycle is supported.
 - the implementation that returns the data in the next cycle and the data
 - in the next cycle is not supported.
 - the implementation that returns the data in
========================================================
example11_i-b_t-0.5.v
 This method is used to send the data from the data source
 to the data sink, it is not the same as the output method
 where the output method is responsible for the output of the data
 source and the sink.
 The output method is responsible for the output of the data source
 and the sink. This method is responsible for the transfer of the
 data from the data source to the output method.
 The data sink is not responsible for the output of the data
 source.
 The output method is responsible for the output of the data source
 and the sink. This is the method that is responsible for the
 transfer of the data from the data source to the sink.
 Hence the output method is the only one that is responsible for the
 transfer of the data. The output method is also responsible for the
 output of the data source and the sink.
 The output method is also
========================================================
example12_i-b_t-0.5.v
 this will work in the current implementation of the agent
 but this will be fixed in the future when a new method is used
 to determine the "done" signal
 the issue is that the data is being processed before the
 done signal is asserted.
 it is likely that the implementation will catch this error
 in the future.
 see: https:github.com/marc-wilson/marc-wilson-crypto-camp-2019/pull/11/commits

 so the solution is to run the output of the data processing
 operation into an internal buffer and then assert the done
 signal once the processing has completed.
 this is less efficient than the current implementation
 but the current implementation is not sustainable.
 the alternative is to have the done signal asserted from
 the output of the data processing operation.
 this is more efficient but is unsustainable.
========================================================
example13_i-b_t-0.5.v
 this is a bit tricky, the user should be able to receive the
 response before we return, but the data is already in the
 pipeline, so we need to stall the pipeline until the
 data is received.

 however, if we stall the pipeline, then the data is
 not transferred out and the data will be lost.

 so, we need to register the data in the pipeline and
 then stall the pipeline.

 we don't need to register the data, but we need to
 stall the pipeline.

 we need to stall the pipeline, but we need to
 return the data from the pipeline.

 the solution is to stall the pipeline, then
 return the data from the pipeline.

 the solution is to stall the pipeline, then
 return the data from the pipeline.

 the solution is to stall the
========================================================
example14_i-b_t-0.5.v
 this is a temporary fix for the issue.
 we cannot use the done flag from the kernel.
 we must use the done flag from the output stream
 to be sure the whole data is passed.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might be used by another process.
 we cannot use the done flag from the output stream
 because it might
========================================================
example15_i-b_t-0.5.v
	if (adv_en_i) begin
	
========================================================
example16_i-b_t-0.5.v
 if there is no data in the input, then the output will be
 in the done signal. The output will not be valid.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The output will be valid only when the data is received.
 The
========================================================
example17_i-b_t-0.5.v
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example18_i-b_t-0.5.v
// this is a race condition.
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========================================================
example19_i-b_t-0.5.v
 we will have to have another flag to indicate the completion of the operation
 the current implementation of the last flag is not reliable
 the function of the last flag is to be used to indicate the completion of the operation
 and should not be used for other purposes
 the current implementation of the last flag is to be used for the last operation
 and this is the last operation
 the last flag is always set when the last operation is completed
 the last flag is also set when the operation is completed
 this means that the last flag is always set when the operation is finished
 the last flag is set when the operation is finished
 the last flag is not set when the operation is failed
 the last flag is not set when the operation is canceled
 the last flag is not set when the operation is interrupted
 the last flag is not set when the operation is skipped
 the last flag is not set when the operation is
========================================================
example0_i-b_t-0.7.v
 This is solution of the problem
 Problem: When the i/o is done (by the external application)
 before the external application take the response from the node,
 then it will return error in the next cycle and the node unmarshals the response
 and assumes that it has been processed.
 So, in this case a next cycle is coming from the same application that
 failed with the previous cycle. If we don't wait for a bit the application
 will return an error. This is a case when the application is trying to
 identify the node that has failed.

 Variable: time gap between cycles
 
 the same application that was failed in the previous cycle
 this cycle will be executed and will be able to handle the response
 and if the response is invalid it will return error.
 we have to wait a little time so that the application can identify the
 node that
========================================================
example1_i-b_t-0.7.v
 apparent race
 we could get a transaction and then a ready (or the other way around)
 to then cover up a possible issue in the original design
 if we get a ready then it is safe to proceed with the current input
 if we got a ready then we need to wait for the data to come in
 we can get a ready by just calling transfer (without requiring input)
 we can get a ready by calling transfer with a 1 length input
 we can get a ready by calling the function with a 1 length input
 we can get a ready by trying to call transfer with a 1 length input
 this will cause the engine to call the function
 and then try to transfer, but it will not require any input
 so it will try to transfer with a 1 length input, which is not supported
 so, we need to allow the input stream to this function to handle the input
 or, we
========================================================
example2_i-b_t-0.7.v
 it is required to set the done only when the last message is transferred
 but the done is always released at the last message if the total length is expected.
 the it is required to transfer the last message in the total length,
 so the done must be released by itself.
 however, if the total message length is smaller than the required length,
 the done signal must be released once the message is done.
 so we have to release the done once the transfer is finished.
 if the required length is set to a value with one cycle of operation,
 the done should be released once the message is done.
 however, if the required length is set to a value with 2 cycles of operation,
 the done should be released only once the message is done.
 this should be tested by using different length of data,
 to ensure the done is released correctly.
 at present, we do not
========================================================
example3_i-b_t-0.7.v
// This might be a race condition with the output
// of the module.
// The
// THE
// ANT
// KEEPS
// HAPPIN'
// EASTERLY
// AND
// EASTERLY
// JUST
//
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========================================================
example4_i-b_t-0.7.v
 it waits for a while before reporting that it is done.
 but for the sake of memory leak, it should be dropped...
 however, the error code will be generated correctly
 you can run a memory test to see if it is promotion or not
 if this is a duplication, it should be removed
 or you can use the unit test version of the project
 the error code is valid and it wont be generated anymore.
 I'm leaving it as it is for now.
 you could compare the output and make sure that it is same as before the parsing.
 it would be better if the output is also dropped.
 the output is generated correctly by the error code.
 I think we could drop the C version of this project instead of changing it.
 So, we can use the C version of the project instead of parsing the output.
 It would be cleaner.

 the output
========================================================
example5_i-b_t-0.7.v
 This is a work around of a problem in the original kernel code.
 The generation of the input data for the MAC is done by default
 This may cause problems for the original implementation

 This should be fixed in the original code

 if (test_mode) begin
	 test mode stop the implementation here.
	 test mode will return a true, error message in a different way.
	xemulator{0}<=test_mode;
	xemulator{0}<=1;
	xemulator{0}<=0;
	xemulator{0}<=1;
	xemulator{0}<=0;
	xemulator{0}<=1;
	xemulator{0}<=0;
	xemulator{
========================================================
example6_i-b_t-0.7.v
//	Due to a cycle delay on the last data, a new cycle
//	is launched before the last data is processed.
//	Cycle delay occurs when a new block is created.
//	The result is that the last data should be launched in
//	the following cycle.
//	What if the data comes in so fast that a cycle is not
//	advanced before the data is launched?
//	If the data comes in so fast that it is launched in
//	the cycle that is in process, then the last data will
//	be launched in a new cycle.
//	In this case, the last data will not be made available
//	until the current cycle is done.
//	The reason for this is because the ERASE operation
//	is implemented with a delay and can happen in another
//	cycle.
//	Once the new cycle is launched, then the ready output

========================================================
example7_i-b_t-0.7.v
will turn on the done_sig
shapeshifter will go to this
instead of the last cycle of the data
this will be removed
ween two cycles of data
this will be a problem
signal to the adapter that the buffer
is done, thus allowing the remote host
to send the data
i.e. a.t.v.s.d.e.r.e.n.i.c.h
will have a.t.v.s.d.e.r.e.n.i.c.h
not i.c.h
will have a.t.v.s.d.e.r.n.i.c.h
not i.c.h
will have a.t.v.s.d.e.r.n.i.c.h
not i.c
========================================================
example8_i-b_t-0.7.v
 this will be fixed in the future
 it is expected that the last block will be sent with
 give time for the last block to get processed
 however, this may be fixed as the string is processed
 in blocks of 8 bits, wait for the last input to be processed
 before return
 This is a known issue of the hash function
 so wait for few blocks to get processed.
 These are very few, but it does have a negative impact on
 the operation of the power-on mode.
 This is a temporary solution, the long term solution is
 to wait until the last block has been processed before
 return back

 e.g. assuming the input is {16'hA1020F7}
 current state is StIdle
 the string is processed in blocks of 8 bits, so the
 data will be processed in 4 blocks.
 The 4
========================================================
example9_i-b_t-0.7.v
 consider doing this in a different module
 the lookahead is intended to prevent a level of error that may occur from
 the use of a field that is not yet received
 the done signal will be generated when all data is received and
 the 16-bit field is correctly set
 perhaps this module should be part of a pipeline
 perhaps the use of lookahead is not needed since the field should be
 set in a single cycle

 as part of the conversion process
 the done function will be called one cycle after the
 16-bit field has been set in the last data word
 the conversion logic will therefore be placed in
 the very next cycle

 the issue with the design is that the field is not ready
 during the cycle that the last word is being received.
 this could result in an invalid value
 at this stage, the alternative is to stall the
 conversion
========================================================
example10_i-b_t-0.7.v
 this is not working properly. Do not know why it works at a glance, but seems
 as a matter of fact the code is never getting executed.
 so, we need to use the busy signal for the entire duration of the
 transaction.
 i'm not sure if this is working correctly. Results are shown in the
 advanced output.
 we need to check how this works with the output.

 Possible solutions:
 1. Implement a dummy method that returns a value that matches the output.
 2. Implement a custom output valid method.
 3. Implement a dummy method that accepts a single parameter that is the
 output.
 I'm guessing for now that this implementation is correct because it is not
 a method which returns a value.

 Possible solution 2:
 assign a.parameter = 1'b1;
 assign b.parameter = 1'
========================================================
example11_i-b_t-0.7.v
// this function was not called on the other side.
// so if the result is sent first and the other side gets the done
// result before the result of a get operation is returned the result is lost
//
// I fixed the above problem by keeping a value in memory of the size of the
TKEEP_MEMORY_SIZE of available data. So when the done signal is sent we
have the result of the operation in our memory (space available for the data
on the other side) and so the such data can be returned to the other side
properly.
// DO NOT remove the line below, this is needed for the result to be returned
// properly.
// implementation of sending the data
	//! we have to return the data as a multiple of 8 bits
	//! we have to return the data as a simple byte array
	//! we have to return the data as a block
	//
========================================================
example12_i-b_t-0.7.v
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========================================================
example13_i-b_t-0.7.v
 Niet dat afschonen is gezien, er moet er toch zijn.
 Er wordt geen data geleaved. Dit is zo correct? 
 Er wordt geen data geleaved
 Er wordt geen data geleaved, dit is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt geen data geleaved, dit is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt geen data geleaved, het is zo correct?
 Er wordt ge
========================================================
example14_i-b_t-0.7.v
// if the buffer is ready it needs to be transferred
// transfer for that will be done upon frame
// end


// signal last message if needed
// if (id_en_i) begin
//
// end
//

// end
// else
// state machine will stay in StTx for 30s
//
//
//
//
//
//

// wait for the last message
//
// wait for the last message
//
// terminate
// reset

========================================================
example15_i-b_t-0.7.v
// it is possible that the done signal will be asserted before the
// flow control logic is able to catch up. This can happen if the
// the done signal is received before a new flow is forced (and
// the flow control can catch up). A logic bug is likely.
// if (adv_en_i)
// assign
// thelogic_mode = '1;
// end
// end
// thelogic_mode = '1;
// end
// else
// end
// end
// end
// end

========================================================
example16_i-b_t-0.7.v
// i think the output of the last command is sent not on the clock tick
// but on the next cycle.
// if this works correctly, we can consider the output valid
// when we encounter the done signal
// however, if it works incorrectly, we would need to
// keep the output of the last command for one extra cycle
// so that it is not eclipsed by the done signal.
// this is just done from guest perspective.

// This is caused by the repeated clock tick of the first
// output. The byte sent on the last command is
// "11" when it should be "1".
// This is not an issue with the original implementation,
// as the message is sent too fast.
// I think it is the result of the delay of the "1"
// in get_ready.
// I am not sure how we should handle this...
// so from now on, we are going
========================================================
example17_i-b_t-0.7.v
// ksv.cpp - kv store file format
// v1.0
// 19 May 2019

// copyright (C) 2019-2020 Alexey Kravchenko
// domain: https://i.krav.me
// e-mail:
// web: http://www.krav.me/web/page/site-map/
// github:
// https://github.com/akravchenko/site-map-web-application-with-php/
// license: http://atl.fs/r/C/2021/11/2018/2018/11/2018/2018-11-2018/2018-11-2018/https://github.com/akravchenko/site-map-web-application-with-php/blob/master/LICENSE
// source: https://github.com/akravchenko/site-map-web-application-with-php/bl
========================================================
example18_i-b_t-0.7.v
 ofs:
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3c bus
 i3
========================================================
example19_i-b_t-0.7.v
 This issue is expected to be fixed in the future.
 For now, wait for a second to avoid false-positive
 against the default implementation of the last-state
 kill signal
 `wait (1'b1, 1'b1);
 ```
 workaround for the issue.
 The issue is that
 the last-state killing engine is going to become
 the "default-engine" for the system.
 This means that the last-state is now going to
 be used by "default" engine and all other state
 can only be killed by "default" engine.
 We need to do a bit of work to allow other
 engines to continue using their current values.
 The current code can be synced by changing the
 implementation of mtk_clk_gate.
 The issue can be reproduced by commenting in the
 `include "mf
========================================================
example0_i-b_t-0.9.v
// ready is extended in such a way that after the task and before it stdlib could possitage it
// afterwards.
// it should not be used in pre-processor trees
// we have to use the common way of ready signal.
//
// FIX: this means that the position of the ready is not assured in the same side.
assign ready_preoferte = 

always @ *
begin
case(ident)
'h4c4c48404:{a_r, b_r} <= {ident[3:0], 1'b0};
'h4c4c484f4:{a_r, b_r} <= {ident[3:0], 1'b0};
'h4c4c4f4f4:{a_r, b_r} <= {ident[3:0], 1'b0};
'h4c4c45443
========================================================
example1_i-b_t-0.9.v
// do not read buffers any more
// and on output store only necessary bytes
// http://stackoverflow.com/questions/226564/field-access-in-python
://https://code.visualso.com/3dplot
// http://essejay.github.io/
// plot eleman register id and sequence number


========================================================
example2_i-b_t-0.9.v
 instituion startup waits for 2 cycles before going idle
 accomplish this optimization in the driver module
 geared off of that,
 determine if we remove this optimization
 to remove Kmac::pkt_type_int and len_byte_num from the top level
 define type parameter, otherwise parity and replication will not work
 correctly.
 ->info about this driver
 Sequential (no parallel, no comm, no lots of output, has delays, for rates)

 1.8 HOTSPIZATION PAR
 
 Current implementation divided by one issue. This model will work if only
 one cooker is use. For multiple cooker we need to be able to hold more
 than one packet in the queue, so no inference that only one packet should
 be impressed on the output. So this current implementation hold one packet,
 and will queue an another packet. So we need another level
========================================================
example3_i-b_t-0.9.v
//
// "use" higher level code for registered in back
// or during the compile process: should be extracted
// The issue with signal unlink
// will also create "wrong" output during this period
// that will get overwritten by other signals
// See signal unlink TestBench
//

// high level output
// from now on
// call a generic and external function
// to indirectly link to a file
// this allows a static function
// that will allocate a file handle 
// and return so it can be closed
// this simulates the `ifstream` class
// to be able
// just to have an input 
// some of the functions expect a command file
// the user is responsible to maintain
// the file according to the input file rule

//open the file
//initialize the frame
//read the file


/*********************************
 *
 * ex: current_operation(
========================================================
example4_i-b_t-0.9.v
// it has to perform a task to
// release the wakeup flag

// FIXME taller, a file)
// fiber which can give a well emptied
// string to the upper layer

// FIXME race conditions
// an implementation can suspend the
// activity and wait for time chunks/gaps

// massive delay here
////delay #30000;

// fiber should check for data (new app. design)
// the timeout is also ticked that this could be checked
// always remove a fiber if user delays for time frames
// this may be modified
// also time chunks should be checked
////delay #1000;

// i will give it until 4000*500ms
/// the first half is pretty high and will lead to run in time during task execution. i was around 8 min thus 3000*500ms. (16 bit fixed point)
////impliment as a utility in order to save string slots
========================================================
example5_i-b_t-0.9.v
// Regarding M19, why use a "parallel" (and, "sync") instead of "full_intersema_MS" type of code
// The problem is this signal will not be seen
// until route-map gen_intra_mtr sets it back from parameter "enableDARE"
// TODO: NEED TO FIX "enableDARE" --> full_intersema_MS
// Users need to test the "generate and edit a transaction" section of IVI-GP
// refer to "specific.test" and "specific_verbose.test"
// refer to the input "testbench/include file " moreparam.txt)
assign IntStatusSpace0 = II_st_reg;
assign IntStatusSpace1 = II_st_reg;
assign IntStatusSpace2 = II_st_reg;
assign IntStatusSpace3 = II_st_reg;
========================================================
example6_i-b_t-0.9.v
//max82921
//max82921
//max86519
//max86559
// max87959
//max87959
//image_path
//mitrige_data_path
//mitrige_data_path
//max86926
//max86926
//mitrige_data_path
//mitrige_daughterboard
//mitrige_daughterboard




//aftle select major factor module and dosen't have second factor
// image//mitig_v
//snap//mitig_snap
//mitig_snap.png

//ption 1. We have source code for step-1. Daisy-chain and we don't need source.
//it will erase all information inside the array, source_info and block should be the same
// 403 sector
/*
//title_in.txt //title.txt
//
========================================================
example7_i-b_t-0.9.v
// ardu + v11 + down samples
// https://github.com/xlabbeh/t
// H/BID_CTLD_2.01_Common_Model_jeff_xlab


// interrupts the body for 1 cycle
// trigger_wait miss implementation, could have been done by using vpi


========================================================
example8_i-b_t-0.9.v
 max comments on 12/8/16
 HTTPSUPPORTED
blems, so inclk should use external clk, and then success or fail
the clock should be the same as any other clock
the clock should be 
this could work
we need to know if this would be returned at all, or whether or not we would be able to simply wait upon the done generated by Fifa
we assume a zero dict means that it will wait upon the fsm done...only possible if no other operations are done.
FAKRETRY allows you to provide a retry feature, where you will simply at it to the failed state. at the current point of crossing a mcp, we will simply queue it.
a potential way out would be to get the very exact amount of bytes that we are supposed to send, and then implement a well...
in this case you can get the exact amount of bytes specified
========================================================
example9_i-b_t-0.9.v
// the reason for the problem can be inferred
// as the passing half-cycles of the potentially corrupt
// system operations can confuse the logic
// therefore the "kmac_data_o.ready" can never be asserted
// because of this possible incongruence


// endmodule

module dribbler
(
	input wire [5:0] ledid,
	input wire [10:0] ledseq, // must be a combination of LED1, LED2, etc.
	output wire ledpat	// must have the pattern of {LED1, LED2, ..., LED4, LED5}
);

	parameter LENGTH_mLED = 80; //
	parameter LENGTH_hLED = 4000; // to be displayed for 4.5 seconds
	parameter LENGTH_vLED = 240; // for 240 vertical LED SSDs

	// implement timeout
	localparam LONG
========================================================
example10_i-b_t-0.9.v
// of\cpp/ccmc_assembler.v does not handle deinitialization
// so it cannot work as a LUT
// procurement of a few clocks is about the time it will take.
// but if the clock is high it can definately take place.
// may need to small trip or kill:
// in a test bench then : 1'b0, then 1'b0, and then 1'b1 may work.
// but that detection method may not always work if the clock naturally
// resets when the probe is removed. This code would free-up the memory
// needed for the delaybreak
/*
// clock domain position
always @(posedge clock) begin
 if (rst_i === 1'b1) begin
 delaybreak_i <= 1'b0;
 end else begin
 delaybreak_i <= test;
 end
 end

 always @(posedge clock)
========================================================
example11_i-b_t-0.9.v
//i = if_tx_data_i;
//j = if_tx_data_j;
//k = if_tx_data_k;
//l = if_tx_data_l;
//TODO: ok not parity check, could be done better
//check if parities are accomplished by data words from even and odd txn
//only to keep parity, need to check all data words.
//kmac decoder is on standalone so it cannot read parity bits properly
//TODO: still not sure if this work under any scheme
//we do not retrieve the check sum
uten:begin
key_values[1] = key1[7:0];
key_values[2] = key1[15:8];
key_values[3] = key1[23:16];
key_values[4] = key1[31:24];
key_
========================================================
example12_i-b_t-0.9.v
// TODO: 2017-11-28 21:31:29, for lianxi iam for fastmod right error
//prototype.to, vmse format and category as integer, or float precision will return 9.0445391E-32 records
//#affint ik가, 간다양수지약과 rcv pkt된 상태, 한글안제얜더

// function of a state indicate output ready
// 활성여러이양우변 가로상황
//ex) 1. sending idle(Start Bit) --> and sending packet 
//2. Sending (T) --> and send packet'time'out
========================================================
example13_i-b_t-0.9.v
// based on the code, the input of prohibited_m is asserted at a wrong location,
// probably at the beginning of the decode function
//apologize, but I had no time to look at the code again :(
//
// however, this used to be fixed as follows:
// This is just an assignment of a simple non-zero. As such, it is expression
// compatible, so it will raise a warning. The value is assigned and then
// evaluated. The warning is suppressed using a pass-signals mechanism.
// issue with this way is that the real value cannot be deduced since it is
// suppressed. Also, the test below fails for some reason.
//
// wonder why this works but not the other way
//verilog test --should be ok
initial begin
#1100 $finish;

========================================================
example14_i-b_t-0.9.v
 24002887�?
 topic switch test

 wizard: export AEB verilog -> code -> run -> files
 (y)
 -- file: from.v
 -- 404 results

 
errors:
 1. processing the RAM buffer may fail. In other words, it is not possible to create the required micro-eflores conflicting between 
 both the I2C and the 8 bit controller. 


 jh\:D:\git\code\utils\Serial.cpp:79: Design Entry Exception: Initialization failed, so cannot proceed to Capcom or Parallel Flash mode

Starting vlight cooker in the IDE
--- PATH: ??:\ch-11\code\utils-64bit\vlight\vlight_xplog.exe: JOB STATE: unreachable
--- LINK: 8: PERF MB/
========================================================
example15_i-b_t-0.9.v
input [1:0] escaped = 2'b00;
input [1:0] escaped = 2'b11;
pkt_type_s plt_0 o/
pkt_type_s plt_0 i/
pkt_type_s plt_0 f/
pkt_type_s plt_0 r/
pkt_type_s plt_0 r/
pkt_type_s plt_0 w/
pkt_type_s plt_0 w/
pkt_type_s plt_0 w/
pkt_type_s plt_0 w/
pkt_type_s plt algo v1.3 1/
pkt_type_s plt algo v1.3 1/
pkt_type_s pl
========================================================
example16_i-b_t-0.9.v
// It would be nice if we could just enable this in one place
// Instead of this change in this file and the previous one for this module
// I think on the next 'wrap up' we could just connect 'byt_i' to the same
// output port that the next module uses, as it is,
// there is no clean way to connect it.
// Please fix this,
<61420

// Please fix this after a test shows up - maybe it is better to return the 
// data and the cal when both the input and and output are ready. However
// right now the data is valid state is held until it is written to the output.
// By returning this we'd eliminate data to be written back.

// Checked the logger output, looks like that the invalid bit is not set. 
// However if the firmware wont accept the data it works as it 
// sets the output parameter
========================================================
example17_i-b_t-0.9.v
// freshly squeezed, add asserts to cover to avoid memory leak :)
assign utm11_c = ((xr3 & xr4 & xr7) | (xr1 & xr2 & xr3) | (xr2 & ~xr3)) && (xr3 & ~xr4);
assign utm12_c = ((xr1 | xr4 | xr6 | xr8) | (~xr1 & xr3 & xr4)) && (~xr2 & ~xr3 & xr4);
assign utm13_c = (xr9 || (xr1 & ~xr4 & ~xr6) || (~xr1 & xr2 & ~xr4 & xr6) || (xr1 & xr4)) && (xr2 & xr4 & ~xr6);

========================================================
example18_i-b_t-0.9.v
//https://github.hidrace.com/ticket/1
// https://github.com/hidrace/hidrace-rig/pull/437/enforcement-fixes
// arrives DATA in view order and we need to process them by PHY-cap order
// together parts of HTK are considered in reverse order
// processing of individual byte input
// we need this to be concict with mutlipbuffer usage
// 
// block view buffers until MAC layer consumed
// pipeline guide: view process_input()
//
// pipeline view:
// data from v1 view (HPD)
// data from v2 view (start tx)
// data from v3 view (adv tx)
// data from v4 view (data tx)
// data from v6 view (ifup)
// data from v5 view (stop tx)

// reset from (HPD) drops out --> ready for stop transaction

========================================================
example19_i-b_t-0.9.v
.''.alan_reg_32 = .___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.
'.__________________.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.
'.__________________.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.
'.__________________.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.___.
'.__________________
========================================================
example0_i-c_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// done_o = 1'b1;
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then

========================================================
example1_i-c_t-0.1.v
 if (adv_en_i)
 begin
 if (id_en_i)
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;

========================================================
example2_i-c_t-0.1.v
 if (adv_en_i)
 begin
 	assign kmac_done_vld = 1'b1;
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	ass
========================================================
example3_i-c_t-0.1.v
 if (adv_en_i)
 begin
 if (id_en_i)
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0
========================================================
example4_i-c_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// done_o = 1'b1;
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then

========================================================
example5_i-c_t-0.1.v
 if (adv_en_i)
 begin
 if (id_en_i)
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 if (kmac_data_i.ready)

========================================================
example6_i-c_t-0.1.v
 if (adv_en_i)
 then
 else
 begin



























































































========================================================
example7_i-c_t-0.1.v
// if (adv_en_i)
// then
// else
// then
// done_o = 1'b1;
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then
// done_o = 1'b0;
// end
// end
// else
// then

========================================================
example8_i-c_t-0.1.v
 if (adv_en_i)
 begin
 if (id_en_i)
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end

========================================================
example9_i-c_t-0.1.v
 if (adv_en_i)
 begin
 if (id_en_i)
 begin
 if (gen_en_i)
 begin
 if (kmac_data_i.ready)
 begin
 kmac_done_vld = 1'b1;
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 end
 else
 begin
 kmac_done_vld = 1'b0;
 end
 end
 end
 else
 begin
 kmac_done_v
========================================================
example10_i-c_t-0.1.v
// if (adv_en_i)
// begin
// if (id_en_i)
// begin
// if (gen_en_i)
// begin
// if (adv_en_i)
// begin
// if (kmac_data_i.ready)
// begin
// kmac_done_vld = 1'b1;
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end

========================================================
example11_i-c_t-0.1.v
// if (adv_en_i)
// begin
// if (id_en_i)
// begin
// if (gen_en_i)
// begin
// if (adv_en_i)
// begin
// if (kmac_data_i.ready)
// begin
// kmac_done_vld = 1'b1;
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin

========================================================
example12_i-c_t-0.1.v
 if (adv_en_i)
 then
 else
 begin



























































































========================================================
example13_i-c_t-0.1.v
// if (adv_en_i)
// begin
// if (id_en_i)
// begin
// if (gen_en_i)
// begin
// if (adv_en_i)
// begin
// if (kmac_data_i.ready)
// begin
// kmac_done_vld = 1'b1;
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin

========================================================
example14_i-c_t-0.1.v
// if (adv_en_i)
// begin
// if (id_en_i)
// begin
// if (gen_en_i)
// begin
// if (adv_en_i)
// begin
// if (kmac_data_i.ready)
// begin
// kmac_done_vld = 1'b1;
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end
// end
// else
// begin

========================================================
example15_i-c_t-0.1.v
 if (adv_en_i)
 then
 else
 begin



























































































========================================================
example16_i-c_t-0.1.v
 if (adv_en_i)
 begin
 	assign kmac_done_vld = 1'b1;
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	ass
========================================================
example17_i-c_t-0.1.v
 if (id_en_i)
 id_en_vld = 1'b1;
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
 end
 else
 id_en_vld = 1'b0;
========================================================
example18_i-c_t-0.1.v
 if (adv_en_i)
 begin
 	assign kmac_done_vld = 1'b1;
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	assign kmac_done_vld = 1'b0;
 end
 end
 else
 begin
 	ass
========================================================
example19_i-c_t-0.1.v
// if (adv_en_i)
// then
// else
// begin
// 	assign kmac_done_o = '0;
// 	assign kmac_done_o = '0;
// end
// else
// begin
// 	assign kmac_done_o = '0;
// 	assign kmac_done_o = '0;
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end

========================================================
example0_i-c_t-0.3.v
 if (adv_en_i)
 begin
 	assign adv_en_o = 1'b1;
 	assign adv_en_o = 1'b1;
 end
 else if (id_en_i)
 begin
 	assign id_en_o = 1'b1;
 	assign id_en_o = 1'b1;
 end
 else if (gen_en_i)
 begin
 	assign gen_en_o = 1'b1;
 	assign gen_en_o = 1'b1;
 end
 else
 begin
 	assign adv_en_o = 1'b0;
 	assign id_en_o = 1'b0;
 	assign gen_en
========================================================
example1_i-c_t-0.3.v
 if (adv_en_i)
 done_i = 1'b1;
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1'b0;
 end
 else
 done_i = 1
========================================================
example2_i-c_t-0.3.v
 if (adv_en_i)
 then
 else
 then
 done
 can't be done here because it is not yet initialized
 done = (adv_en_i && !adv_en_reg) || (id_en_i && !id_en_reg) || (gen_en_i && !gen_en_reg);
 can be done here
 done = (adv_en_i && !adv_en_reg) || (id_en_i && !id_en_reg) || (gen_en_i && !gen_en_reg);
 can be done here
 done = (adv_en_i && !adv_en_reg) || (id_en_i && !id_en_reg) || (gen_en_i && !gen_en_reg);
 can be done here
 done =
========================================================
example3_i-c_t-0.3.v
// if (adv_en_i)
// begin
// 	//adv_en_i = 1'b1;
// 	//adv_en_i = 1'b1;
// 	//adv_en_i = 1'b1;
// 	//adv_en_i = 1'b1;
// end
// end

// end

========================================================
example4_i-c_t-0.3.v
 if (adv_en_i)
 {
	kmac_data_o.ready = 1'b1;
	kmac_data_o.valid = 1'b1;
	kmac_data_o.data = kmac_data_i.data;
	kmac_data_o.last = kmac_data_i.last;
	kmac_data_o.id = kmac_data_i.id;
	kmac_data_o.idx = kmac_data_i.idx;
	kmac_data_o.sig = kmac_data_i.sig;
	kmac_data_o.sigc = kmac_data_i.sigc;
	kmac_data_o.sigb = kmac_data_i
========================================================
example5_i-c_t-0.3.v
 if (adv_en_i)
 begin
 adv_en_i is always high
 we have to wait for a few cycles before we can assert the done signal
 there is no need for the done signal to be asserted immediately after the first byte is written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after the first byte has been written
 the done signal will be asserted after
========================================================
example6_i-c_t-0.3.v
 if (adv_en_i)
 begin

 end
 else
 begin

 end






















































































========================================================
example7_i-c_t-0.3.v
 if (adv_en_i)
 begin
	xu_data_out = {IfBytes{1'b1}};
	xu_data_out_valid = 1'b1;
	xu_data_out_len = 1'b1;
	xu_data_out_id = 1'b1;
	xu_data_out_id_valid = 1'b1;
	xu_data_out_id_len = 1'b1;
	xu_data_out_id_id = 1'b1;
	xu_data_out_id_id_valid = 1'b1;
	xu_data_out_id_id_len = 1'b1;
 end
 end
 else
	xu_data_out
========================================================
example8_i-c_t-0.3.v
// if (adv_en_i)
// begin
//
// end
// else
// begin
//
// end
// end

// if the input is ready, then the output is also ready
// if the input is not ready, then the output is not ready
// in the case of the last stream, the output is always ready
// regardless of the input being ready or not
// if the input is not ready, then the output is always not ready
// regardless of the input being ready or not
// if the input is not ready, then the output is always not ready
// regardless of the input being ready or not
// if the input is not ready, then the output is always not ready
// regardless of the input being ready or not
// if the input is not ready, then the output is always not ready
// regardless of the input being ready or not
// if the input is not ready, then
========================================================
example9_i-c_t-0.3.v
// if (adv_en_i)
// then
// else
// begin
//
//
// end
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//

========================================================
example10_i-c_t-0.3.v
// if (adv_en_i)
// begin
// if (id_en_i)
// begin
// if (gen_en_i)
// begin
// if (adv_en_i)
// begin
// if (kmac_data_i.ready)
// begin
// 
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end
// end

========================================================
example11_i-c_t-0.3.v
 if (adv_en_i)
 begin
 	if (id_en_i)
 	begin
 	
========================================================
example12_i-c_t-0.3.v
// if (adv_en_i)
// if (id_en_i)
// if (gen_en_i)
// if (adv_en_i)
// if (gen_en_i)
// if (id_en_i)
// if (adv_en_i)
// if (gen_en_i)
// if (id_en_i)
// if (adv_en_i)
// if (gen_en_i)
// if (id_en_i)
// if (adv_en_i)
// if (gen_en_i)
// if (id_en_i)
// if (adv_en_i)
// if (gen_en_i)
// if (id_en_i)
// if (adv_en_i)
// if (gen_en_i)

========================================================
example13_i-c_t-0.3.v
 if (adv_en_i) begin































































































========================================================
example14_i-c_t-0.3.v
 if (id_en_i) begin
	id_stream_r = id_stream_i;
	id_stream_r.reset();
	id_stream_r.next_stream = id_stream_i.next_stream;
	id_stream_r.next_stream_r = id_stream_i.next_stream_r;
	id_stream_r.next_stream_r_d = id_stream_i.next_stream_r_d;
	id_stream_r.next_stream_r_d_d = id_stream_i.next_stream_r_d;
	id_stream_r.next_stream_r_d_d = id_stream_i.next_stream_r_d_d;
	id_stream_r.next_stream_r_
========================================================
example15_i-c_t-0.3.v
 if (adv_en_i)
 begin
 kmap_data_o.ready = 1'b1;
 kmap_data_o.valid = 1'b1;
 end
 else if (id_en_i)
 begin
 kmap_data_o.ready = 1'b1;
 kmap_data_o.valid = 1'b1;
 end
 else if (gen_en_i)
 begin
 kmap_data_o.ready = 1'b1;
 kmap_data_o.valid = 1'b1;
 end
 else if (adv_en_i)
 begin
 kmap_data_o.ready = 1'b1;
 kmap_data_o.valid = 1'b1;
 end
 else
 begin
========================================================
example16_i-c_t-0.3.v
// if (adv_en_i && !id_en_i && !gen_en_i)
// done_i = 1'b1;
// else
// done_i = 1'b0;
// end
// end
// end

// end


========================================================
example17_i-c_t-0.3.v
 if (id_en_i) begin































































































========================================================
example18_i-c_t-0.3.v
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//
// FIX:
// if (adv_en_i) begin
//

========================================================
example19_i-c_t-0.3.v
 if (adv_en_i)
 then
 else
 begin
 	assign kmac_done_o = '0;
 	assign kmac_done_o = '0;
 end
 else
 begin
 	assign ksv_valid_o = '0;
 	assign ksv_data_o = '0;
 end
 end
 else
 begin
 	assign ksv_valid_o = '0;
 	assign ksv_data_o = '0;
 end
 end
 else
 begin
 	assign ksv_valid_o = '0;
 	assign ksv_data_o = '0;
 end
 end
 else
 begin
 	assign ksv_
========================================================
example0_i-c_t-0.5.v
// if (data_i.ready)
// then
// do
// something
// else
// then
// do
// something else
// end
// end
// end

========================================================
example1_i-c_t-0.5.v
// if (adv_en_i) begin
//	async_mode = 1'b1;
//	async_mode = 1'b0;
// end


// end
// end
// end
// end
// end
// end
// end
// end
// end
// end


========================================================
example2_i-c_t-0.5.v
 if advanced mode is on, we don't have to wait for the data to be ready
 before we can send the first block
 if advanced mode is off, we have to wait for the data to be ready before sending the first block
 if advanced mode is on, we have to wait for the data to be ready before sending the first block
 if advanced mode is off, we have to wait for the data to be ready before sending the first block
 if advanced mode is on, we have to wait for the data to be ready before sending the first block
 if advanced mode is off, we have to wait for the data to be ready before sending the first block
 if advanced mode is on, we have to wait for the data to be ready before sending the first block
 if advanced mode is off, we have to wait for the data to be ready before sending the first block
 if advanced mode is on, we have to
========================================================
example3_i-c_t-0.5.v
// if (adv_en_i)
// end else
// if (id_en_i)
// end else
// if (gen_en_i)
// end else
// end
// end
// end

========================================================
example4_i-c_t-0.5.v
 if (adv_en_i)
 then
 else
 assign
 kmac_done_vld = 1'b1;
 else
 begin
 assign
 kmac_done_vld = 1'b1;
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 
========================================================
example5_i-c_t-0.5.v
 if (id_en_i) begin

 end
 else
 begin


 end






















































































========================================================
example6_i-c_t-0.5.v
// if (id_en_i)
// 	id_data_o.ready = 1'b1;
// else
// 	id_data_o.ready = 1'b0;
// end
// end
// else begin
// id_data_o.ready = 1'b0;
// end
// end
// end
// end
// end
// end
// end
// end
// end

========================================================
example7_i-c_t-0.5.v
// if (id_en_i)
// id_vld_r = 1'b1;

// FIX:
// if (start)
// gen_vld_r = 1'b1;

// if (adv_en_i)
// adv_vld_r = 1'b1;

// if (id_en_i)
// id_vld_r = 1'b1;

// if (gen_en_i)
// gen_vld_r = 1'b1;

// if (kmd_en_i)
// kmd_vld_r = 1'b1;

// if (kmac_en_i)
// kmac_vld_r = 1'b1;

// if (en_vld_r)
// cnt_vld_r = 1
========================================================
example8_i-c_t-0.5.v
// if (adv_en_i)
// assert done signal after the first cycle of advanced mode
// else
// assert done signal with the last cycle of basic mode
// end
// else
// assert done signal when the input is ready
// end

// if adv_en_i is asserted, the done signal is asserted after the first cycle of advanced mode
// if adv_en_i is not asserted, the done signal is asserted after the last cycle of basic mode
// if gen_en_i is asserted, the done signal is asserted after the last cycle of advanced mode
// if gen_en_i is not asserted, the done signal is asserted after the last cycle of basic mode
// if id_en_i is asserted, the done signal is asserted after the last cycle of advanced mode
// if id_en_i is not asserted, the done signal is asserted after the last cycle of basic mode
// if
========================================================
example9_i-c_t-0.5.v
 this can be done as a one-time operation
 as it is in the middle of a cycle
 we will have to use a flag to remember this
 and then handle the timing issue
 this is a bit tricky and might need to be
 handled in a different way to avoid conflicts
 with other fields
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced slip detection
 eg. advanced
========================================================
example10_i-c_t-0.5.v
 if (adv_en_i)
 then
 else
 if (id_en_i)
 then
 else
 if (gen_en_i)
 then
 else
 if (adv_en_i)
 then
 else
 if (id_en_i)
 then
 else
 if (gen_en_i)
 then
 else
 if (adv_en_i)
 then
 else
 if (id_en_i)
 then
 else
 if (gen_en_i)
 then
 else
 if (adv_en_i)
 then
 else
 if (id_en_i)
 then
 else
 if (gen_en_i)
 then
 else
 if (adv_en_i
========================================================
example11_i-c_t-0.5.v
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//



//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//

========================================================
example12_i-c_t-0.5.v
// if (rounds == 0 && state_d == StTxLast)
// done_vld = 1'b1;
// else
// done_vld = 1'b0;
// end


// if (state_d == StTxLast)
// done_vld = 1'b1;
// else
// done_vld = 1'b0;
// end
// end

========================================================
example13_i-c_t-0.5.v
 if (id_en_i)
	kmac_done_vld = 1'b1;
 if (gen_en_i)
	kmac_done_vld = 1'b1;
 end if (adv_en_i)
	kmac_done_vld = 1'b1;
 end if (id_en_i)
	kmac_done_vld = 1'b1;
 end if (gen_en_i)
	kmac_done_vld = 1'b1;
 end if (adv_en_i)
	kmac_done_vld = 1'b1;
 end if (id_en_i)
	kmac_done_vld = 1'b1;
 end if (gen_en_i)
	
========================================================
example14_i-c_t-0.5.v
 or



































































































========================================================
example15_i-c_t-0.5.v
 if intermediate states are allowed, the done signal is asserted
 until the current state is done.

 if intermediate states are not allowed, the done signal is asserted
 only after the current state is done

 if intermediate states are allowed, the done signal is asserted
 until the current state is done.

 if intermediate states are not allowed, the done signal is asserted
 only after the current state is done.

 if intermediate states are allowed, the done signal is asserted
 until the current state is done.

 if intermediate states are not allowed, the done signal is asserted
 only after the current state is done.

 if intermediate states are allowed, the done signal is asserted
 until the current state is done.

 if intermediate states are not allowed, the done signal is asserted
 only after the current state is done.


========================================================
example16_i-c_t-0.5.v
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i)

 FIX:
 if (adv_en_i
========================================================
example17_i-c_t-0.5.v
// if (rounds == 0)
// then the key is ready. So, it cannot be in STTx
// else
// it is in STTx
// end
// end

// if the input is valid, advance the state and output
if (valid_i) begin

// advance state
// if the input is valid, advance the state and output
// note: the output will be always an array of bytes

// assign the output
// TODO: check the size of the output
//assign op_o = data_i;
assign op_o = data_i;

// check the size of the output
// always @* begin
// if (sizeof(data_i) < 4)
// error_o = 'ERROR';
// else
// error_o = 'OK';
// end

// assign the output
assign data_o = data
========================================================
example18_i-c_t-0.5.v
// if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end
// else if (gen_en_i) begin
// 
// end
// else begin
// 
// end


// end
// else if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end
// else if (gen_en_i) begin
// 
// end
// else begin
// 
// end


========================================================
example19_i-c_t-0.5.v
// if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end
// else if (gen_en_i) begin
// 
// end
// else if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end
// else if (gen_en_i) begin
// 
// end
// end
// else if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end
// else if (gen_en_i) begin
// 
// end
// else if (adv_en_i) begin
// 
// end
// else if (id_en_i) begin
// 
// end

========================================================
example0_i-c_t-0.7.v
 if (adv_en_i || id_en_i || gen_en_i) begin
	@(negedge sysclk)
	@(negedge rst)
	@(negedge adv_en_i or negedge id_en_i or negedge gen_en_i)
	@(negedge gen_en_i)
	@(negedge adv_en_i or negedge gen_en_i)
	@(negedge rst)
	@(negedge id_en_i)
	@(negedge rst)
	@(negedge id_en_i or negedge gen_en_i)
	@(negedge rst)
	@(negedge gen_en_i)

========================================================
example1_i-c_t-0.7.v
 To achieve this, we need to implement a "Pipe in Pipe out"
 So, we need another layer between this and output stream.
 But, it's better if the output stream is directly attached to a
 external interface.

 IMPORTANT:
 This works fine but it is not nice from the point of
 view of a user.
 It would be better if we have user visible "Log sink"
 messages.

 It is like this:

 write to the log sink (user visible)

 write to log sink (user hidden)

 write to the log sink (user visible)

 So, 

 - UsrVisibleLogSink shall be connected directly to the log sink
 - UsrHVisibleLogSink shall be connected to the log sink, only visible
 - Usr
========================================================
example2_i-c_t-0.7.v
 Check for Interrupted sequence and then assert if done is asserted.
 and only then take a look at the current state.
 This considered as a potential error
 if (u_data_i.interrupt)

 then


 or

 if (u_data_i.interrupt)

 then




























































========================================================
example3_i-c_t-0.7.v
 if ( (vy_acc_i | vy_acc_o) && (vy_acc_i | vy_acc_o) 
 then FIX THIS
 else
 
 *vlog_msg_I* "The data in vy_acc_i is not valid. Please check the implementation of vy_acc_i."
 *vlog_msg_I* "The data in vy_acc_o is not valid. Please check the implementation of vy_acc_o.\n\n"
 *vlog_msg_I* "The data in vy_acc_i is not valid. Please check the implementation of vy_acc_i."
 *vlog_msg_I* "The data in vy_acc_o is not valid. Please check the implementation of vy_acc_o.\n\n"

========================================================
example4_i-c_t-0.7.v
// https://github.com/lint-off/bin/issues/6034
if (state_q < StRts) begin
// the relevant bits have been accepted
// they will be held until the request is completed
// or otherwise they will be thrown out at the out buffer
// todo:
// todo: this may be optimized with a single register instead of two
// todo: this may be optimized by creating a 4bit register for the two 32bit ints
// todo: possibly allow a single bit for input and output
// todo: check if the 1024 bytes can be hit with a single 32bit reg
// todo: look into buffer overflow

========================================================
example5_i-c_t-0.7.v
//
//
//
//
//
//
//
//

// This is for when all the data is loaded on the same cycle. Usually, the
// data is loaded in the first or last substep.
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//
//

========================================================
example6_i-c_t-0.7.v
 if (bytes_in[0:1] == 2'b11)
 or is this expected behaviour to be the way it is done now?
 as it stands now, this means that the very first data bit is always getting processed by the
 callee of this component.
 see: https:www.openphysics.org/docs/using-oph-solver-for-a-scientific-calculation-of-a-quantified-exact-solution
 the way it works is that:
 1. the execution of the module starts and ends with the call to the module
 2. the module itself has 1 external call to the callee of this component
 3. the callee of this component is called by the thread that invokes this module,
 and as such, there is only 1 instance of the callee of this component, and it is
 never called directly.
========================================================
example7_i-c_t-0.7.v
// if (id_en_i && id_kmac_o.ready) begin
// or if (gen_en_i && gen_kmac_o.ready) begin
// or if (adv_en_i && adv_kmac_o.ready) begin
// do nothing.
// end else if (adv_en_i) begin
// do nothing.
// end else if (id_en_i) begin
// do nothing.
// end else if (gen_en_i) begin
// do nothing.
// end else if (user_en_i) begin
// do nothing.
// end else if (wait_en_i) begin
// do nothing.
// end else if (wait_en_i) begin
// do nothing.
// end else begin
// do nothing.
// end
// end
// end
// end
// end

========================================================
example8_i-c_t-0.7.v
 if (state_d == StTxLast) begin
	 done signal will be set later
	 instead of assering
	 this will make the engine work in "delay"
	 state and thus no more delay
	 to infer the error
	 at run time.
	
	 delay_error = '1;
	
	 speculative error can also be
	 generated when state machine
	 works at the very beginning.
	
	 delay_error = '1;
	
	 speculative_error = '1;
	 
	
	
	 end
	 end
	 end
	 end

	
========================================================
example9_i-c_t-0.7.v
 This is the fix for the issue of freeing a shared output.
 It is possible that the shared output can be freed by another module before
 the module that initially created the output attempts to use the output.
 When the latter module attempts to use the output it will be trying to
 access a non-existing memory location and will therefore result in a segmentation fault.
 The use of a smart pointer is not really a solution as it is a
 very high performance feature that will create a lot of extra
 memory usage for the application.

 The issue is solved by always keeping the output value valid until
 the application says otherwise. The output value is updated by
 writing one bit at a time. By definition the output value can
 always be updated. If the application tries to access an
 invalid memory location, the application will have an uncorrect
 result. This is unlikely to occur and therefore it
========================================================
example10_i-c_t-0.7.v
 verified that the state transition does get into the
 correct state. If this is not the case, then this
 must be changed to the new state.

 e.g. C8 => E8. If this is not the case, the
 done signal must be asserted manually.

 e.g. C8 => E8. If this is not the case, the
 done signal must be asserted manually.

 e.g. C8 => E8. If this is not the case, the
 done signal must be asserted manually.

 e.g. C8 => E8. If this is not the case, the
 done signal must be asserted manually.

 e.g. C8 => E8. If this is not the case, the
 done signal must be asserted manually.

 e.g. C8 =>
========================================================
example11_i-c_t-0.7.v
 if (!(kmac_data_i.ready)) begin
 	kmac_data_i.data = '0;
 	kmac_data_i.ready = 1;
	kmac_data_i.valid = 0;
	kmac_data_i.valid = 1;
	kmac_data_i.id = '0;
 	kmac_data_i.id = 1;
	kmac_data_i.user_id = 1;
	kmac_data_i.user_id = 1;
	kmac_data_i.lock = 1;
	kmac_data_i.lock = 1;
	kmac_data_i.num_lock = 1;
	kmac_data_i.num_lock = 1;
	kmac
========================================================
example12_i-c_t-0.7.v
 - In intermediate states, receiving a frame can create a race by a
 other transfer that was carried out before the frame transmission.
 - More importantly, clean-up tasks that are performed within the
 frame receive layer must be run by the upper layer that is performed
 within the frame receive layer (to avoid potential state impurities).

 - Thus, for now, clean-up tasks are not performed within the frame
 receive layer, instead are performed by the upper layer that is
 performed within the frame receive layer.

 - A potential solution is to use the state machine of the upper
 layer and interpret the state machine based on the frame receive
 level.
 - For now, all clean-up tasks are performed synchronously by the
 upper layer and not by the frame receive layer.

 - It is important to note that a frame receive layer is not
 intended to
========================================================
example13_i-c_t-0.7.v
 This is a temporary work around. Need to find the root cause for this issue.
 It is observed that the assertion of 'lfsr_offset_e' is inferred to have the
 dimension '4', but the actual FSM implementation has the dimension of '8'.
 The result is that one of the LFSR bits will always be zero.

 Another possibility is that the state machine implementation is stuck in a state
 where it cannot progress, perhaps the 'd' in the code does not allow for it
 to advance.

 Either way, the conclusion is the LFSR offset must be the actual size of the
 FSM implementation. This can also be solved by:
 - Increase the dimension of the FSM
 - Increase the clock period of the FSM

 However, it is also likely that the code is incorrect. In which case,
 increasing the dimension
========================================================
example14_i-c_t-0.7.v
 it is recommended to use only the events "done" and "error" to
 control the whole process of the operation of the host interface
 without using the timeout mechanism
uphemia-> stop the operation when timeout
joice-> stop the operation when error
�\___\__\__\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\___\
========================================================
example15_i-c_t-0.7.v
/*
if (state_q == StRxIdle) 
begin 
// this is the ideal time for done signal.
// however, it can't be compared with original done signal,
// that was set in StRx. So we reset it at StTx state
// but only if we have some data coming in
// that is, StTxIdle and RxIdle state.
// Otherwise we have to wait for kmac_done_vld
// to come from upper layer
// note: at StRxIdle we have to wait for data to come in
// as otherwise we would lose data.
// so we have to handle data from upper layer
// we can use the data from the first 16 bytes for the generation
// of the key.
// this is done as a part of the buffer mechanism
// so there should be no data loss in the buffer
// todo: have a
========================================================
example16_i-c_t-0.7.v
 if (id_en_i)
 then
 begin
¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­
¢€­¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­¢¢€­
¢€­¢€­¢¢€­¢¢€­¢¢€­¢¢€­
========================================================
example17_i-c_t-0.7.v
// The implementation of the last block in the calling chain of the
// kernelmac implementation in the kextra project has been changed
// to no longer return the done signal to the upper level of the
// implementation. The done signal is now passed along as the
// ready signal.
//
// if (kmac_data_i.ready)
//	kmac_done_vld = 1'b1;
// else
//	kmac_done_vld = 1'b0;


// end
// end

// end

========================================================
example18_i-c_t-0.7.v
//part 1
//part 2
//part 3
//part 4
//part 5
//part 6
//part 7
//part 8
//part 9
//part 10
//part 11
//part 12
//part 13
//part 14
//part 15
//part 16
//part 17
//part 18
//part 19
//part 20


 ////part 11
//part 14
//part 15
//part 16
//part 17
//part 18
//part 19
//part 20
//part 21
//part 22

//part 16
//part 19
//part 20
//part 21
//part 22
//part 23
//part 24
//part 25


========================================================
example19_i-c_t-0.7.v
// if (adv_en_i)
// done = 1;
// end
// else if (id_en_i)
// done = 1;
// end
// else if (gen_en_i)
// done = 1;
// end
// else 
// done = 0;
// end
/**
 * @brief Start generation
 *
 * @param[in] data_i
 * @param[in] key_i
 * @param[in] key_s_i
 * @param[in] iv_i
 * @param[in] iv_s_i
 */
generate
if (encrypt_type) begin
assign gen_block = {IfBytes, key_i, key_s_i, Nonce, IV[0:8]};
assign level_block = {IfBytes, key_i, key_s_
========================================================
example0_i-c_t-0.9.v
563ENCE80WF3XHV6VSUOQFTHQRVEZ46142Z4H7233G6KZHXCOLJ4PCRQQRZNQTV2D3XYQYB6SJHJYNZGVCYT6WWG5ZFKLHNQ7SZ6QY2Y556BXHFK5PS 3'b111
 infinite loop if error is returned
5444520418209055373591910223116914E5429:00000000000000011203EA3A78174CEA21CA3DD1E2033EA3D4CC1A2290BE6264D43340EE726820592E565A1A673F36641BC49600417535CCC6656F6866362181BEB23212943C760ED4EC1E10AB57579522
========================================================
example1_i-c_t-0.9.v
 If idle state is reached, ack manager
 for unique requests
 NOTE:
 * in transfor state, data and sel fields have been filled, which means, signal is valid;
 * in late states the data and sel fields (in that order) will be filled. Therefore, the signal is considered
 valid, but we cannot parse the fields; up on caller.
 i: '0' - SELECT
 Create sel field using value of address field.
 i: '1' or '2' - ADD
 `i_addval is add value, different from other languages, because. So in native code, two add operation may not work very well.
 i: '3' - KEY
 CHANGE by baka
 Change to reflect input data format, e.g. the input data is only a byte.
 CHANGE: 2018-02-06 to get
========================================================
example2_i-c_t-0.9.v
// upon receiving handshake from the host, wait for 'intermediate' periods
// before raising "done" signal
// while(umar_sync_vld_no) begin
// @(umar_sync)
// end
// end
// end



// on intermediate states, consider "active" period to be inside the
// Mikro or Advanced one, to avoid race between check active flag and
// possible sleep cycle execution.


// when done has been requested, the endpoint expects a single bit
// indicating success or failure
// => at keyup, the done signal is sent even when the transfer is
// completed on the bus
// => a "bus ready" indicator is required
// => on bus ready, pass along the unknown ACK, this will properly
// handle
// in-flight ACK
//x.input_bready = ~(acer.ready);


========================================================
example3_i-c_t-0.9.v
 Autonomous load operation is not completely instantiated
 After response of the final operation to the output controller there are 2 option:
 1. wait one cycle and take input from the data fifo using either RNG or aead.
 2. Wait till the output controller have had output and then read the required data using either aead or rng_method.
 During autonomous operation the driver maximum operation cycle is checked and the operation becomes
 delayed if the maximum operation cycle is reached. This is a conservative implementarion and
 certain cycle may be skipped. This could also lead for some cases to missing data.
 no timeout increment is used at the moment. it might be required to get specific data.
 So the operations that needs to be delayed can be tuned.
 During delayed operations latency will be added to the overall operation time.
 So the period of real time ( that should be kept constant by the driver) may
========================================================
example4_i-c_t-0.9.v
// Check if there is a new bits set by byte catch and compare them to the existing ones
// if new values:
// - advance the stage sequence
// - assume that data is valid after this sequence
// if not new values and values already set (typ. clear values):
// - accept no output for that stage
////\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\;
//// /////////////////////////////////////////////////////////////////////
////
//// // Progress bar sample
////
//// Progress bar code is very long, yet all according to requirements
//// Integers are the biggest resources within software.
//// As memory resources are more important in Mobiles.
//// I'm using very strong 32 bit integers for simple progress bar
////
//// Integers are signed 32 bit.
//// Integer is more complex than a byte.
//// You have to use a conditional expression and handle two operands:
//// * sign bit for a negative value,
//// * the absolute value of the integer
////

========================================================
example5_i-c_t-0.9.v
 ASN code in order
 FIX:
 the transaction has not been accepted so continue with the key where the transaction was initiated.
 The transaction has been accepted and as a result it has either been invalidated, or it has been
 used to build the new key material.
 If the tx was accepted then its valid in the obvious spot. If the tx was invalidated then it
 was send to the key derivation code where it was under used, and a new key was generated.
 if the key material was used then the signoable flag will be
 asserted for one cycle so that the key is ready to be used by the core at the rcv point.
 Otherwise the key must be generated by the rcv point when cooker has been received.
 All the remaining bits from the parsed message will be passed to the highest level for handling.
 in normal mode this will be the EC head, in identity
========================================================
example6_i-c_t-0.9.v
//954199173 64-bit Sierra 10.11.11 - Rooted/unrooted, Stored/unstored to info/ Fate palette
// xemitional epee test fixture
// to allow launch of application for test setting
/*
target="memory:600x20x11106E-3B8A043B-825616E5-96E5DA0D47B1E20A247996EF23E491B925305D7EAFCA738B0ED6B85338B36783CC3ACFE0268E189C8CB9B665711CA7297A20F860E3EEA02022E210F819B7D18BEB316B1155";
target="memory:600x20x11106E-3B8A043B-825616E5-96E5DA0D47B1E20A
========================================================
example7_i-c_t-0.9.v
 '0' - 'kmac_data_i.ready'
 '0' - 'kmac_data_i.ready'
 '0' - 'kmac_data_i.ready'
 when `HDR_ON`
 '1' -
 '1' -
 when `HDR_OFF`
 '0' -
 '0' -
 ignore hdr and put output without header
'0' - not a valid HDR, so `HDR_ON` should take affect and generate output as if it was a valid HDR
msg.
 only in `HDR_ON` mode
 when `HDR_ON`
'1' -
 '1' -
 when `HDR_OFF`
'0' -
 '0' -
 in `HDR_OFF` mode
 intentional
========================================================
example8_i-c_t-0.9.v
//wrapper_maj_tb.max_timeout_miss_i = 1'b1;
//wrapper_maj.testresult = 'TestFailed';
// end wrapper_maj_tb.after_test;
// end wrapper_maj_tb.after_test;
// end wrapper_maj_tb.after_test;
// end wrapper_maj_tb.after_test;
addcallback wrapper_maj_tb.add_cb_after_test;

========================================================
example9_i-c_t-0.9.v
/*
* for (hi_nb =0 ; hi_nb < NO_BLOCKS ; hi_nb = hi_nb + 1)
* for (hi_to_nb =0 ; hi_to_nb < NO_BITS : hi_to_nb)
* for (hi_to_i =0; hi_to_i < NO_INPUTS; hi_to_i = hi_to_i + 1)
* for (hi_to_nb =0; hi_to_nb < NO_INPUTS; hi_to_nb = hi_to_nb + 1)
* for (hi_to_o =0; hi_to_o < NO_OUTPUTS; hi_to_o = hi_to_o + 1)
* for (hi_to_nb =0; hi_to_nb < NO_OUTPUTS;
========================================================
example10_i-c_t-0.9.v
// Telescoping Wires
//assign C_b1 = loopholes[256];
//assign P_b1 = kmac_data_i.sum;
//assign P_b2 = P_b1 ^ C_b1;
//assign temp_sum = P_b2 ^ C_b1;


========================================================
example11_i-c_t-0.9.v
assign sym_ha = `h8000000;
assign sym_wa = `h8000000;
//note - 4 cycles stall
// linx import, but no module
// http://max.github.io/EXAMPLERs/linx_lib.v
module aldevpn
(
 input wire[15:0] di, 	// pn code that corresponds to a source address of the Pn, MG, TCU
 	input wire hi,
 	output wire osc,
 	output wire clk
);

assign w1 = { hi, di[14:0] };
assign w2 = { di[15], di[22:15] };

clk2ition synthesis bind created
clk2ition instance25
clk2ition instance25.v debig
clk2ition instance25.v debigu
========================================================
example12_i-c_t-0.9.v
/*
status.router.s.project-1.cal-studio.exe Module 
Parameters:problem: 
:) (INTERMEDIATE STEPS)
:) (VALID INTERMEDIATE STEPS)
:Misc
:) (VALID ROUND)
:) (VALID LAST ROUND)
:) (VALID OPERATION)
:) (VALID KEY)
:) (VALID INTERRUPT)
:) (VALID FLASHING TIME/RUN)
:) (VALID COUNTDOWN UNIT)
:) (VALID Z KEY COUNTDOWN UNITS)
:) (VALID P KEY ASYNCH)
:) (VALID COUNTDOWN UNIT SIGRUN CODE)
:) (VALID COUNTDOWN MACHINE CODE)
:) (VALID FLASHING MACHINE CODE)
:
========================================================
example13_i-c_t-0.9.v
// if (adv_en_i && adv_done) begin
// 
// end
// else if (id_en_i && id_done) begin
// 
// end
// else if (gen_en_i && gen_done) begin
// 
// end
// end
//


// state transitions
// StTx:
// 
// StTx: initial GAP
// StTx, StNeth, StIdle, StS1, StS2, StM1, StM2, StW1, StW2, StR1, StR2, StR3, StR4, StR5, StR6, StR7,
// StM1, StM2, StW1, StW2, StH1, StH2 are particularly allowed source i/o
// StTx, StH1, StH2 -
========================================================
example14_i-c_t-0.9.v
 have a counter for gen and adv and all other kinds of advances
 need to assert and remove data at proper points of the protocol
 i.e. a cycle, axe from the start of this protocol
 attention!, we cannot have minus as value from
 a counter below. So we do not support advanced modes
 with that, it is a mandatory auto mode. So, what
 do we do?
 Not a REQ / WSRQ. These are states that does
 not directly return the resource back for context.
 I assume that a single axis advances a context at this
 time.
 minus options, advanced modes
 with advanced mode, a single rule applies
 with soft integration, a single rule may apply even
 with soft integration, since these rules have a good
 understanding
 with indirect rules, it may have more clever integrations
 to figure out their changes.

========================================================
example15_i-c_t-0.9.v
 once data ready, raise done signal (instead of raising by an unknown number of cycles)
 after based on amount of clocks and time used
 eg. 10 cycles with 10 msecs = 100 cycles
 eg. with 12 msecs = 655350 base, 120 usec = 95.3363279118 seconds, 100*655.35*655.5*12 = 100base600000 time units, 100 base600000 time units
 eg. with 80 msecs = 262 fib units
 eg. with 60 msecs = 8192 fib units
 eg. with 20 msecs (1/100 of 2.5 secs)
 eg. with 10 msecs (1/1000 of 2.5 secs)
 Velocity independence
 eg. 1000 base units requires 100 msec, 100 units have 100 msec. 
 eg. 1000000 units requires 1 sec, 
 eg. altitude variation could be upto
========================================================
example16_i-c_t-0.9.v
// Morty - why is there a delay here?
// Emanuel - Fixing such a delay here is not simple.
// It seems very confusing.
//{4'b1111,{3'b1,11'b11100111001001130011200711138}};
// I'm not sure how there is a delay during this operation.
// Take it as a delay?

// todo - catch it
//azzerrln("Compare - %s vs. %s\n\t\t%s %d vs %s %d", state_q, state_d, dfk.GetStateDescription(),
// dfk.GetRoundCount(),
// state_d,
// dfk.GetRoundCount());
// ack_err_o = {error0, error1} when both are valid and is paqr
// err_i = error from the round before the one just
========================================================
example17_i-c_t-0.9.v
// or should no delay pad be taken since it will buffer the output?
// It might buffer the done signal but then it will also have delay pad
// assignment, one way to assign delay pad is to have delay pad match
// the last signaling pad, the only way is to trigger the settle stage
// and then trigger the done stage
//
// end
// else
// This element cannot be created and/or sent
// end


�ë试决硬件I/O与故云韌静态文件备写I/O，该文件可查映I/O配置，对于报即或完成按键
模块独脑器快
========================================================
example18_i-c_t-0.9.v
// This check should be combined with and outside the loop
// Such that this error is suppressed only when this tests for proper i2c path
// There is a potential TOOSLIGHT error in the call-stream cycle
// that could lead to this problem. However, many of these errors
// are incorrectly suppressed because both of these values are
// upper streams that have very little logic integrated in this
// test.
// FIX:
// Similar approach used in key rules, because it is placing here
// the problematic coming from the cache module
 // timeout will resolve keeps the test log clean.
// always @(posedge clock or posedge reset)
// if (reset) timeout <= '0'; else timeout <= timeout + 1;


========================================================
example19_i-c_t-0.9.v
// Tyrannicide method of calling task hooks to completely avoid race conditions
// won't increase call stack, but who knows
//
// basically copied from Keycode.v
// this method should allow correct asserts originally where the 'assert' was called

/*
экверэґ־’ʼ‚źŻźŸź’"'’‚&'";
/*_mac(keycode);
intern_vld = keycode[32];
intern_en = keycode[29:28];
intern_key = keycode[25:11];
intern_data = keycode[9:0];
intern_bt = keycode[23:16];
intern_real = keycode[32:28];
intern_covering = keycode[60:55];
intern_data_16 = keycode[9:
========================================================
example0_i-d_t-0.1.v
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example1_i-d_t-0.1.v
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example2_i-d_t-0.1.v
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example3_i-d_t-0.1.v
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========================================================
example4_i-d_t-0.1.v
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========================================================
example5_i-d_t-0.1.v
 this is a temporary solution to prevent the issue
 that the done signal is not asserted until the
 next clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not asserted until the next
 clock cycle.
 the issue is caused by the fact that the
 done signal is not
========================================================
example6_i-d_t-0.1.v
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========================================================
example7_i-d_t-0.1.v
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========================================================
example8_i-d_t-0.1.v
// if the input is ready, then the output should be ready
// if the input is not ready, then the output should not be ready
// this is the reason why the output is always ready
// however, the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready
// the output is not ready when the input is not ready

========================================================
example9_i-d_t-0.1.v
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========================================================
example10_i-d_t-0.1.v
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========================================================
example11_i-d_t-0.1.v
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========================================================
example12_i-d_t-0.1.v
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========================================================
example13_i-d_t-0.1.v
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========================================================
example14_i-d_t-0.1.v
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========================================================
example15_i-d_t-0.1.v
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========================================================
example16_i-d_t-0.1.v
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========================================================
example17_i-d_t-0.1.v
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========================================================
example18_i-d_t-0.1.v
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========================================================
example19_i-d_t-0.1.v
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========================================================
example0_i-d_t-0.3.v
 if the input is ready, then the output is ready.
 if the input is not ready, then the output is not ready.
 the done signal is always 1 when the output is ready.
 the done signal is always 0 when the output is not ready.
 the done signal is always 1 when the output is not ready.
 the done signal is always 0 when the output is ready.
 the done signal is always 0 when the output is not ready.
 the done signal is always 0 when the output is not ready.
 the done signal is always 0 when the output is ready.
 the done signal is always 1 when the output is not ready.
 the done signal is always 1 when the output is not ready.
 the done signal is always 0 when the output is ready.
 the done signal is always 1 when the output is not ready.
 the done signal is always 0 when the
========================================================
example1_i-d_t-0.3.v
// This is a workaround for a known issue of aria-core.
// The issue is that the aria-core does not handle the
// output of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.
// The issue is that the aria-core does not handle the output
// of the module correctly.

========================================================
example2_i-d_t-0.3.v
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========================================================
example3_i-d_t-0.3.v
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state
// assign zero to done signal in ready state

========================================================
example4_i-d_t-0.3.v
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========================================================
example5_i-d_t-0.3.v
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========================================================
example6_i-d_t-0.3.v
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========================================================
example7_i-d_t-0.3.v
// assign zero to done signal when receiving
// ack from a slave
// end
// end
// end
// end
// end
// end
// end

========================================================
example8_i-d_t-0.3.v
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========================================================
example9_i-d_t-0.3.v
 the if statement should be in the middle of the function
 the done signal should be the last signal
 the done signal should be a valid signal
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte is sent
 the done signal should be a valid signal only when the last byte
========================================================
example10_i-d_t-0.3.v
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========================================================
example11_i-d_t-0.3.v
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========================================================
example12_i-d_t-0.3.v
 assign zero to done signal in ready state
 if (adv_en_i)
 assign zero to done signal in ready state
 if (id_en_i)
 assign zero to done signal in ready state
 if (gen_en_i)
 assign zero to done signal in ready state
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
 end
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 end
 end
 end
 end
 end
 end

========================================================
example13_i-d_t-0.3.v
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example14_i-d_t-0.3.v
 if the data is ready, then the done signal is always 1
 if the data is not ready, then the done signal is always 0
 this is the only way to guarantee that the done signal is always
 1 when the data is ready.
 the done signal is always 1 when the data is ready.
 the done signal is always 0 when the data is not ready.
 this is the only way to guarantee that the done signal is always
 1 when the data is ready.
 the done signal is always 1 when the data is ready.
 the done signal is always 0 when the data is not ready.
 this is the only way to guarantee that the done signal is always
 1 when the data is ready.
 the done signal is always 1 when the data is ready.
 the done signal is always 0 when the data is not ready.
 this is the only way to guarantee that the
========================================================
example15_i-d_t-0.3.v
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========================================================
example16_i-d_t-0.3.v
// assign zero to done signal in ready state
// this is how the test bench is setup
// if (kmac_data_i.ready) begin
// 	kmac_data_i.data_out = '0;
// 	kmac_data_i.data_out_valid = '0;
// 	kmac_data_i.data_out_valid_valid = '0;
// end
// else if (kmac_data_i.ready) begin
// 	kmac_data_i.data_out = '0;
// 	kmac_data_i.data_out_valid = '0;
// 	kmac_data_i.data_out_valid_valid = '0;
// end

// if (kmac_data_i.ready) begin
// 	kmac_data_i.
========================================================
example17_i-d_t-0.3.v
 this is a temporary solution.
 the done signal is not correctly set.
 we need to set the done signal to zero until the
 done signal is correctly set.
 the done signal is set to zero until the
 done signal is correctly set.
 this is a temporary solution.
 the done signal is not correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal must be set to zero until the
 done signal is correctly set.
 the done signal
========================================================
example18_i-d_t-0.3.v
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example19_i-d_t-0.3.v
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example0_i-d_t-0.5.v
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example1_i-d_t-0.5.v
// if we want to use the K-M-A-C module in the future, we need to
// implement the ready signal correctly. Otherwise the module will
// not be able to accept any new data
// end
// end
// end

========================================================
example2_i-d_t-0.5.v
 a) make sure the done signal is always set in the same way.
 b) the done signal should be set to 1 until the last operation is completed.
 c) the done signal should be set to 1 when the last operation is completed.
 d) the done signal should be set to 1 when the last operation is completed.
 e) the done signal should be set to 1 when the last operation is completed.
 f) the done signal should be set to 1 when the last operation is completed.
 g) the done signal should be set to 1 when the last operation is completed.
 h) the done signal should be set to 1 when the last operation is completed.
 i) the done signal should be set to 1 when the last operation is completed.
 j) the done signal should be set to 1 when the last operation is completed.
 k) the done signal should be set to 1 when
========================================================
example3_i-d_t-0.5.v
 if we have a valid data_i, we need to send it out
 to avoid the problem of the output of the last transaction not being transfered
 we can do this using the done signal
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we have a valid data_i, we need to send it out
 if we
========================================================
example4_i-d_t-0.5.v
// zero the done signal after it is asserted
// if the input is valid, the output is ready.
// if the input is invalid, the output will be zero.
// the output will be zero if the input is invalid.
// the output will be zero if the input is valid.
// the output will be zero if the input is invalid.
// the output will be zero if the input is valid.
// the output will be zero if the input is invalid.
// the output will be zero if the input is valid.
// the output will be zero if the input is invalid.
// the output will be zero if the input is valid.

// if the input is valid, the output is ready.
// if the input is invalid, the output will be zero.
// the output will be zero if the input is invalid.
// the output will be zero if the input is valid.
// the output will be
========================================================
example5_i-d_t-0.5.v
// assign zero to done signal in ready state
// this is done to avoid the issue of a delay in the 
// assignment of the done signal.
// the same issue is present in other modules.
// this is the only way to avoid delay in the signal
// assignment of the done signal.
// if the issue is present in other modules, 
// it should be resolved by adding a delay in the signal
// assignment of the done signal.
// this is the only way to avoid delay in the signal
// assignment of the done signal.

// end
// end
// end

// end of state machine

========================================================
example6_i-d_t-0.5.v
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//assign zero = {'0', '0'};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0, {'0', '0'}};
//assign zero = {1'b0,
========================================================
example7_i-d_t-0.5.v
 this should be done in the same cycle as the last round
 this is a work around for a known problem with the current implementation
 we can not use the last done signal as it is not a part of the current
 instruction.
 the zero value should be a part of the instruction, but it is not.
 this can be fixed by adding the zero value as a part of the instruction.
 but then we need to add another bit to the instruction to signal the
 presence of the zero data in the instruction.
 this can be done by adding the zero value as a part of the instruction.
 however, the zero value is not a part of the instruction, so we need to
 add a bit to the instruction to signal the presence of the zero value.
 this can be done by adding the zero value as a part of the instruction.
 however, this is a part of the instruction, so we
========================================================
example8_i-d_t-0.5.v
 it should be checked if it is in the active state
 if it is in the active state, it should be set to 1
 if it is in the active state, it should be set to 0
 it is not expected to be done in any other state
 zeroing done signal here will cause problems
 the issue is that the done signal is being externally
 asserted and it will be externally asserted forever
 until the next start command is executed.
 the done signal is being externally asserted
 until the next start command is executed.
 the done signal is being externally asserted forever until
 the next start command is executed.
 the done signal is being externally asserted forever until
 the next start command is executed.
 the done signal is being externally asserted forever until
 the next start command is executed.
 the done signal is being externally asserted forever until
 the next start command is executed.

========================================================
example9_i-d_t-0.5.v
 THIS FIX IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS REQUIRED
 THIS IS
========================================================
example10_i-d_t-0.5.v
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example11_i-d_t-0.5.v
 if the packet is not ready, then it will be discarded by the
 front
========================================================
example12_i-d_t-0.5.v
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iverilog will not accept a signal with no assignment
 iveril
========================================================
example13_i-d_t-0.5.v
 verilog has no type inference, thus cannot use a parameter as a type.
 this works, but it is not possible to use a parameter as a type.
 we use the default type for this parameter, and thus cannot use it
 as a type.
 verilog has no type inference, thus it cannot use a parameter as a
 type. The only way to use a parameter as a type is to use it in a
 template, which we cannot do here.
 so, we use the default type for this parameter, and thus cannot use
 it as a type.
 verilog has no type inference, thus it cannot use a parameter as a
 type. The only way to use a parameter as a type is to use it in a
 template, which we cannot do here.
 so, we use the default type for this parameter, and thus cannot use
 it as a
========================================================
example14_i-d_t-0.5.v
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example15_i-d_t-0.5.v
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========================================================
example16_i-d_t-0.5.v
// if we need to assert a done signal, we need to use a different mechanism.
// We have to use a different mechanism than a ready signal.
// we have to use a signal that is not ready.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.
// we have to use a different mechanism than a ready signal.

========================================================
example17_i-d_t-0.5.v
 this is a work around to a known problem with the implementation of the
 done signal. The done signal is generated from the last clock cycle of
 the last byte. The last byte is a 1 bit. This is a problem because the
 done signal is generated from the clock cycle after the last byte.
 The implementation of the done signal for the last byte of the stream
 is causing problems. So, we have to reset the value of the done
 signal to zero until we can be confident that the done signal is
 generated correctly.









































========================================================
example18_i-d_t-0.5.v
 zeroed out the done signal in ready state
 this is a work around for an issue in the implementation
 that is causing a zero value to be returned in the done signal
 when the input stream is available.
 the zero value is not a problem for the implementation, it
 is just a problem for the testbench.
 this can be fixed by adding a counter to the implementation
 to count the number of times that the input stream is available.
 the counter should be added to the implementation, and the
 implementation should be fixed such that the counter is not zeroed
 out.
 the current implementation of the testbench cannot handle this
 problem.
 this is a known issue in the implementation of the testbench
 that will be fixed in the future.
 this is a known issue in the implementation of the testbench
 that will be fixed in the future.
 this is a
========================================================
example19_i-d_t-0.5.v
// zeroing done signal on input ready state
// if (id_en_i)
// assign zero to done signal in id state
// else if (gen_en_i)
// assign zero to done signal in gen state
// else if (adv_en_i)
// assign zero to done signal in adv state
// else if (rst_i)
// assign zero to done signal in reset state
// end
// end
// end
// end
// end
// end
// end
// end

// end of module
// -------------------------------------------------------------------------------


========================================================
example0_i-d_t-0.7.v
// the done signal is always going to be set, no matter
// what the input is.
assign zero = kmac_data_i.ready ? 1'b0 :
kmac_data_o.ready ? 1'b1 : 1'b0;

========================================================
example1_i-d_t-0.7.v
// the wait counter should be started on the first rising edge of the
// done signal.
// it will be counted with the next allowed done pulse (or after
// 1.6 seconds if no more done pulses are allowed).



// the done signal can be generated again, but the wait counter
// should be counted from the first rising edge of the done signal.
// if this counter is less than the 1.6 seconds wait counter,
// then the done signal may be generated again.
// this wait counter has to be counted from rising edge of the
// done signal to determine if the done signal can be generated
// again.
// the wait counter is already at the maximum waiting time of 1.6
// seconds. no more done signals will be accepted.
// this causes a potential issue if the device is allowed to send
// more than 29 signals per second, and then it is waiting for the
// done signal to
========================================================
example2_i-d_t-0.7.v
//zzy-D,K
//assign zed = (zero == 1'b1);
//FIX:
//Assign with given data, otherwise it will be assigned with the zero of the data type.
//assign zed = (zero == 1'b1);
assign zed = (zero == 1'b0);
// end
// end
// end
// end
// end


========================================================
example3_i-d_t-0.7.v
// ignore samples if we start with a block
// if (block_id !=0)
// past_sample_en = 1'b1;
// else
// past_sample_en = 1'b0;
// end
// else
// past_sample_en = 1'b0;
// end


// ***************************
// ENCAPSULATION
// ***************************


// === START COMMANDS ===

// adv_en_i
// allow for set to zero
// adv_en_i = adv_en;

// adv_en_i = adv_en_i;

// id_en_i = id_en;

// gen_en_i = gen_en;

// enc_type_i = enc_type;

// enc_type_i = enc_type_i;

// enc_
========================================================
example4_i-d_t-0.7.v
 the problem is that done signal is not getting set correctly, it should be set to zero when there is no data in input, otherwise it should be 1 when done signal is
 externally received from one of the rising edge of data. The problem is that the delay of that one cycle that comes from the falling edge of the 
 data, is the same time that the done signal is set. The only way to get the done signal to be zero in the case when there is no data in input, there is
 no guarantee of that the done signal is set correctly.
 so, the next line is commented out in order to test the correctness of the implementation.
 the other way of implementation is to use a flag to control the done signal to be 1 only when the done signal is externally received.
 the next line is the implementation.
 the implementation is to use a flag to set the done signal to 1 only when done signal is externally
========================================================
example5_i-d_t-0.7.v
// $display("%t %b", $time, {4'b0010,IfBytes});
// end 
// end 
// end 
// end 
// end 
// end
// end 

// end 
// end
// end 


========================================================
example6_i-d_t-0.7.v
// if the done signal is set outside of the ready state we will get a
// bad assertion.
// if (ready == 1'b1 && zero == 1'b1) begin
////
////
// end
// end
// end
//
//
//
//


 sticky_output_match_check = output_match_i;

========================================================
example7_i-d_t-0.7.v
// once we do this we cannot use the done signal as it is needed
// for the last cycle.
// assign zero = (LastCycle & (|(kmac_data_i.data)) & kmac_data_i.done &
// kmac_data_i.ready);
// end


// end of block
// end of transaction

========================================================
example8_i-d_t-0.7.v
// the best practice is to not use such a pass b/c of the output of the 
// function is not ready.
// the event is linked to the send operation.

// we need to link the done to the operation of the event.
// we should use the event to send the done.
/*
always @(posedge evt_w)
begin

// we need to use the event to send the done to the user.
// so, we are using the event to send the done.
// the idea is to have a done in the event.
// or the user can call the done from the outside of the event.

if(evt_w)
begin
// we have to set the done to the event, to avoid the assertion.
assign dt_event_out = dt_event_out;
// this will be the value of the done.
// we
========================================================
example9_i-d_t-0.7.v
 it is supposed to be done signal in send state
 however it works because of zero tick time
 it is not done signal after all, it is done with the last
 tick of zero time
 however this is the known issue
 done_o.setValue(zero_tick_time, 1.0);
 done_o is not set in the zero tick time, so we use the OR
 to workaround the problem
 done_o.setValue(zero_tick_time, 1.0);
 done_o.setValue(zero_tick_time, 1.0);
 done_o.setValue(zero_tick_time, 1.0);
 done_o.setValue(zero_tick_time, 1.0);
 done_o.setValue(zero_tick_time, 1.0);
 done_o.setValue(zero
========================================================
example10_i-d_t-0.7.v
 - when buffer is full, then send the buffer to all the outputs together.
 - when there is no activity on the window, then send the buffer to all the
 outputs.
 - when the window is open, then send the buffer to all the outputs.
 - when the window is closed, then send buffer to one output.
 - When a window is closed and then opened again, then the buffer should
 be send to one output.
 - When all the windows are closed, then send the buffer to all the
 output.
 - When all the windows are closed and then one or more opened, then send
 the buffer to one output only.
 - When the KMAC is closed, then continue with the last seen data.
 - When the KMAC is opened, then continue with the last seen data.
 - If the KMAC is closed and then opened, then the window state
========================================================
example11_i-d_t-0.7.v
// checking if number of bytes sent is greater than desired number
if (IfBytes > (IfLength * 2))
assign err_o = {'0',500'b0};
// check if number of bytes received is greater than desired length of
// input to engine. This is useful for benchmarking purposes
if (BytesRecv > (DataInLength * 4))
assign err_o = {'0',500'b0};
else
assign err_o = {'0',500'b0};
ends

========================================================
example12_i-d_t-0.7.v
// The issue from the implementation of the code above is that the done signal is not
// asserted immediately. This may cause the code to terminate prematurely. Once the
// implementation has been thoroughly tested, this can be resolved by adding a delay
// on the done signal.
//
// always @(posedge clk or negedge reset_n)
// begin
// if (!reset_n)
// begin
// done_vld_reg <= '0';
// end
// else
// begin
// done_vld_reg <= done_vld_reg;
// end
// end
//
/**
 * This is the internal implementation of the state machine. This implementation
 * uses a combination of a state machine and event processing on the state
 * machine. This implementation will generate events for certain states such as
 * the transition between states. The states of the machine, that is, the
 * implementation of
========================================================
example13_i-d_t-0.7.v
 reset signal is negative or positive
 reset signal is negative or zero.
 reset signal is zero.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.
 reset signal is negative.

========================================================
example14_i-d_t-0.7.v
// if the last data was sent out and the input was not yet
// there was no way to recieve the last input, so the
// done signal was incorrectly asserted
// when the last input was received, the done signal was
// set correctly, this will allow the operation of the
// entire system.

// this will be a global variable, we have
// to determine when the last data was received,
// we need to store the first input, when the k
// is done, we can compare the inputs and determine
// when the last data was received.
// the first input should be sent before the k
// is done, this is of course dependent on time
// required for operation.
// right now we will force k to complete before the
// system response can be known. This will not be
// possible to determine.
// alternately, we can tell that the gap is too
// large, and
========================================================
example15_i-d_t-0.7.v
// verify that the done signal is properly asserted
// mux the done for the 
// else if (id_en_i) begin
// ", ".join(["%.2x", data_i.get(i)]));
// FIX:
// verify that the current data is preserved even if it has a
// zero bit
// mux the done for the 
// else if (adv_en_i) begin

// FIX:
// verify that the data is properly passed along
// mux the done for the 
// else if (gen_en_i) begin

// FIX:
// verify that the data is properly passed along with the generation
// counter
// mux the done for the 
// end
// else
// mux the done for the 
// end
// mux the done for the 
// end
// mux the done for the 

========================================================
example16_i-d_t-0.7.v
// a) the data is ready
// b) the data is accepted as input

// if data is accepted, and the done state is
// asserted right after, check for the done-
// signal.
// if the done-signal is found, then data
// is accepted and the signal can be de-asserted
// immediately.

// if the done-signal is not found, then the
// input has been dropped.
// if the done-signal is found, then the input
// has been accepted and the data-stream can
// be resumed, otherwise the input must be dropped
// to prevent double inputting.

// if the done-signal is not found, then the
// input has been dropped.

// if the done-signal is found, then the input
// has been accepted.

// if the done-signal is not found, then the

========================================================
example17_i-d_t-0.7.v
// throwing assertion error when appropriate one is not found
// as the counter is up to 10 this will result
// to a crash
// end


assert property (NoCancel, NoCancel);

assign kr_h_tmp = key_r_i;
assign kr_l_tmp = key_l_i;
assign key_r_tmp = kr_h_tmp;
assign key_l_tmp = kr_l_tmp;
assign key_r_tmp = kr_h_tmp;
assign key_l_tmp = kr_l_tmp;
assign key_r_tmp = kr_h_tmp;

always @ (posedge clk_i) if (adv_en_i) begin
// todo: look at safe guard
// advance the data pointer
key_r_tmp = k
========================================================
example18_i-d_t-0.7.v
// if (adv_en == 1)
// self.done_i_1 = 1'b1;
// if (adv_en == 0)
// self.done_i_2 = 1'b1;


// end


// else if (adv_en == 0)
// self.done_i_1 = 1'b1;
// if (adv_en == 1)
// self.done_i_2 = 1'b1;

========================================================
example19_i-d_t-0.7.v
assign zero = 1'b1;

========================================================
example0_i-d_t-0.9.v
//&KMACC_DONE_HANDLE
// kmac core cannot handle the code above so we postponed its generation
// perhaps we need to, do we need signal generation logic, or anything to hold a state
// other than the fewminutes delay for a full cycle

// if generate code from factbook than state transition does not correspond to comment.
// need to always compare the former output bs and see if it is all zeros.
// if all zero, this should be considered a done sig only for some special cases
// we need to deference the response otherwise.
// are cases for camq de-serialization to occur and benefit from the data rate of the link
// a similar code can be written in the linamac controller for more advanced tasks.
// restransmitter operates on input ready and and idx is determined by bytes.
//
//&KMACC_DONE_HANDLE
========================================================
example1_i-d_t-0.9.v
// this operation is run upon new command. It will signal done as soon as it is done
// with the transaction log, forcing
// the entire pipeline to reset upon completion
// END_MACRO

========================================================
example2_i-d_t-0.9.v
// Once upon a time we had the issue that native library was always trying to link.
// or at least I think the way we reach it was doing some magic optimizations.
// By just changing the order of the guards we could have the file created.
// So, as we have it 1M no real issue to create the file for 1M, we must assume that no real issue
// exists for it. I think this time is based on how the native library is implemented.
// I would really like to know why we are here in the code. Maybe it could be resolved by
// moving in an implementation order to have no based file, that migth be it, but for now this
// assumption must be kept with the real of our selected project
// END FIXING:
//
//

//
// Real time values for counter are created for such values.
// We give a link for user to follow
//
//

========================================================
example3_i-d_t-0.9.v
// assigning value to aabb20f subsystem instead of looping
// aabb20f module. This module is currently a part of the
// mdsdff module, do not assign direct value.
// aabb20f Together thing
// aabb20f module has done signal, feedback not used to avoid wrecking
// feedback links
// verilog code for aabb20f module is reproduced below
module aabb20f (input [19:0] a, [19:0] b, [15:0] v,
int max, int am, int bm);
wire [15:0] distance;
assign distance = v - a;
assign v = distance < b ? v : am + bm;

========================================================
example4_i-d_t-0.9.v
 Rules:
 1. a command is accepted when it is properly received, it is untouched as it is.
 2. a command is accepted if it is run for more than 1 time...
 ...meaning that a running action can be finished with a command to ensure
 it has done what it was intended to do...
 ...there at least is a basic command command
 3. input action is accepted if possible
 4.
 input command is normally masked by the output of the action.
 - this is valid ablty and will be taken care of disbleded by default
 5. on Give Irq, it will need an extra time to complete the action.
 the issue is that a subsequent interrupt will be presented before
 any of the internal's work is done.

 NOTE:
 ex: wait for start
 ex: ack wait/action
 ex: ack
========================================================
example5_i-d_t-0.9.v
 there is precending logic/delay in complex-piped models
 this could be released until kernel starts execution,
 in order to support advanced data pipeling

 {Hermes_out_of_HW_compression_trigger} = 1'b1;
 {Hermes_out_of_SW_compression_trigger} = 1'b1;
 {Hermes_out_of_PW_compression_trigger} = 1'b1;
 {Mirror_out_of_HW_compression_trigger} = 1'b1;
 {Mirror_out_of_SW_compression_trigger} = 1'b1;
 {Mirror_out_of_PW_compression_trigger} = 1'b1;

 if (|{Hermes_out_of_HW_compression_
========================================================
example6_i-d_t-0.9.v
// this is the reason why it works behind a wall.
// the signal will be needed in a different timing.
// a different wall can be attached instead.
// e;

// the signal will be needed in another timing.
// -_->. t was so quick so this case is not met yet.
// therefore, new capability is needed. -_-.
// -_-;

// -_-; I want GTA 2011 Native Coding. No Composite Validation
// -_-;

/*
negedge kmac_data_done_o_se
kmac_data_done_o_se = '1;
*/
// DEBUG: this code used to test for driver attacks. To be fixed.
// kgnrhtb;

// done 
// done
state = StIdle;
// goto appraoch
/* not
outcome<=0;
for (i
========================================================
example7_i-d_t-0.9.v
/*
*\MH\
*\
*\
*\MH\
*\
*\
*\MH\
*\
*\
*\MH\
*\
*\
*\6MH\
*\
*\
*\6MH\
*\
*\
*\6MH\
*\
*\
*\6MH\
*\
*\
*\MH\
*\
*\
*\MH\
*\
*\
*\6MH\
*\
*\
*\DH\
*\
*\
*\DH\
*\
*\
*\DH\
*\
*\
*\DH\
*\
*\
*\DH\
*\
*\
*\DH\
*\
*\
*\DH\
*
========================================================
example8_i-d_t-0.9.v
// this can be done as a
// For all the output lines from zigzag module
// create a delay operator that has the same delay
// as the zigzag module.
// Practically, the only delay we get from ss-inputs
// is of 13 bits at the moment.

// ???? 99x. RI, 9x. CPU DOCUMENTATION ????
// For the sake of simplicity, we may consider the krava
// as a one byte always zero stream.
// 03.12.17 we have
// expected outputs to be '0',
// However ????
//
//krava_error_o = 1'b0;
//vvv it should avoid returning 0 over and over
// krava_error_o = 1'b1;

//this
//assign zero_tst_stream=*(1-stream_cdr_
========================================================
example9_i-d_t-0.9.v
// gui.hidden '1' abd struct.c
// {struct_file} is universal to all cpp files of the project.
// the current output file is {project_name}_cpp_wrapper.h
// therefore, the output will be limited for 
// 40 {386, 256, 10} bytes when complied for xcode.
// as the whole struct is smaller in that file,
// I guess it can fit the whole memory
// 4096{16} = {4096, 16}
 *itiak


========================================================
example10_i-d_t-0.9.v

// scheduled for now
//
// end in 100ms - this should be enough for the instantiation phase.
// this can be reduced by schedualing the process in 100ms
// otherwise, it can be calculated by bits received and number of bits
// as estimate
//
// not real time - from time format
//
// currently Bytes and Time as reported by the dut are calculated as
// (bytes * time_interval) / time_interval
// for the current DUT it should work fine.
always @(posedge sck or posedge reset) begin
 tm_cnt_r = tm_cnt_r;
 tm_cnt_r = tm_cnt_r + 'd1;
 end
always @(posedge sck or posedge reset) begin
 bytes_count_r = bytes_count_r;
 bytes_count_
========================================================
example11_i-d_t-0.9.v
// synchronized clock hand board
// implementing synchronized clock hand board
// method calls could be move immediately, without keep rule.
// so running raw data, when receive it, can directly pass it to application
// and other operations, such1: use a method call to reset state
// 2: use local variables
`include "zy.v"
`include "regspace.v"

module andgate(op1,op2,out);

input op1,op2;
output out;

AND u1(out,op1,op2);


========================================================
example12_i-d_t-0.9.v
//orthodox way of handling medicines
//https://good.jrill.com/engagements/architect_s_phl/0b12c7faf78an7jrivkd965t2jf
//figure out what data is required for which APIs
//delay 4 symbols
//https://github.com/10247106
//a explanation on why 32'h400 is needed
// hypothetically rename API - send request and keep track of this request, then run another query and renew the token based on whatever information we might receive from the server
// rename a method registerrequest




persege_TO_from_daclient/rsp-Servlet.cl
// poller update, its up to the tab to handle it. for now, gt: 50 and lt: all recprods have to be in regular intervals


// blacklist some entries
// slow down the token lookup for the
========================================================
example13_i-d_t-0.9.v
 will be taken care of later
if (i_en_i == 1'b1 && m_en_i == 1'b1)
 shouldn't this be a module as it is needed by several modules
 Guarantee the following signature according to table 4
 (G,W or E,U or P,M or S,H or T,R)
 ___________________________________________________________
 1 - Executive control and control data is valid
 0 - Executive control and control data is not valid
 2 - The S- bit of the instruction is not set
 0 - The S-bit of the instruction is set
 ___________________________
 __________
 General:
 0 - None
 1 - General opertations
 2 - No translation
 _______________________________________________
 _________________
 According to the signature of the instruction, which operation need to be performed

========================================================
example14_i-d_t-0.9.v
 
`error("The Rapid Spin Cycle implementation is not provided correctly at this time. Try again later");


========================================================
example15_i-d_t-0.9.v
// baseman proc, padding of 10 bits
// the number of bytes used to create the authentication block

// Area for post data
// 252-bit data buffer

// perform local operations such as:
// - assume any_X collision
// - account for the padding used in the packet
// - any other operation to be recorded in the MAC header
// - the MAC header will have a size of 256 bit ~ 4byte
// - the upper layer is the dealer
// - in the case of a master key, an encrypted key must be used but for a slave,
// - any form of key can be used as a single key is used to maintain security
// - the key store can encompass all types of keys and security parameters

// http://xaphi.com/MLLR_enryption.pdf for solaris/open troupe/comix/e
// DES3&16 bit RSA recommended settings

//
========================================================
example16_i-d_t-0.9.v
 however, filtering
 could be adjusted to look at one out of 3 ready channels:
 -1, -2, or -3
 however, this is fine
 w/o multiplex
 who would be there to do filter in another direction for more or less complexing the design
 could be 
 - single pin entering into this module
 ...
 - have user driver to filter the multi-pin output
 ...
 in the future, vp4 may be considered.
 this could be a place where we can use vp4 as well
 for now, not consider because of larger size
 with vp4, also have another plane for output - user will choose whether to use 0 or 1
 simple: use 4 outputs, could be substituted with manner of only one pin used in vp4
 0x - 0, 0x - 1, 0x - 2. 0
========================================================
example17_i-d_t-0.9.v
 the equation should look like the following
 Model a = ((B * 10000 + C * 10000 + D * 10000 + E) * 32) / M
 where B ~= 0, E ~= 0, M = 32
 or in other words we can help by reducing the equation as follow:
 Model a = (B * 10000 + C * 10000 + D * 10000 + E) * 32 / M
 where M = 32 (100,000,000)
 B * 1000 * 10 = 0 B * 100 * 10
 C * 1000 * 10 = 0 C * 100 * 10
 D * 1000 * 10 = 0 D * 100 * 10
 E * 1000 * 10 = 0 E * 100 * 10
 sum of the terms of the equation are greater than 0.
 Incorrect relationship b/c of time
 a * 32 must never reach more than 512
 a * 32 + b
========================================================
example18_i-d_t-0.9.v
// yeah, but it should be updated in pd cycle (from another cpu's cycle)

// EVERYTHING *should* propagate, writer should not take any action anymore
// we want to determin or the output access
// we also need to know, whether it was from a requested output
// congo should be incremented within a 10 clock cycle of external request
//(REVERSE_POLICY can be dropped from the 309 netlist source)
// to guide increase or decrease of c-flops for timing
// keeping the 2 separate clocks does allow the user to pass the c-flops definition to a real net.

// if you don't wait a bit after the clock, you may end up in a tie breaking situation
// so use a variable (counter) to track how many times you are waiting the clock pulse
// the real c-flops value will be assigned by whatever counter reach its value

========================================================
example19_i-d_t-0.9.v
// of out protocol can be see in in the future
// http://lists.foss-development.org/message/136506
// HrJkJK4oRoZ9K4N1p3sCWhyRooxRxonO6Uw
// http://ser2php.com/main.php
// Maybe we could have 2 similar values for input and output ordering
/* 
 total size 1460
// 040914E3DC21_ 40 16-128x64 words), instead of 8 16-128 words
// lights off
// 02021E3DC21_ 40 16-128x64 words - 5 LEDS of 8 words
// 02021E3DC21_ 40 16-128x64 words - 3 LEDS of 8 words
// each board outputs its led. raw data in hex format
// 02021E3DC21_ 40 16-128x64
========================================================
example0_i-e_t-0.1.v
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example1_i-e_t-0.1.v
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example2_i-e_t-0.1.v
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example3_i-e_t-0.1.v
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example4_i-e_t-0.1.v
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example5_i-e_t-0.1.v
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example6_i-e_t-0.1.v
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example7_i-e_t-0.1.v
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========================================================
example8_i-e_t-0.1.v
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========================================================
example9_i-e_t-0.1.v
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========================================================
example10_i-e_t-0.1.v
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========================================================
example11_i-e_t-0.1.v
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========================================================
example12_i-e_t-0.1.v
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========================================================
example13_i-e_t-0.1.v
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========================================================
example14_i-e_t-0.1.v
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========================================================
example15_i-e_t-0.1.v
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========================================================
example16_i-e_t-0.1.v
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========================================================
example17_i-e_t-0.1.v
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========================================================
example18_i-e_t-0.1.v
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========================================================
example19_i-e_t-0.1.v
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========================================================
example0_i-e_t-0.3.v
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========================================================
example1_i-e_t-0.3.v
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========================================================
example2_i-e_t-0.3.v
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========================================================
example3_i-e_t-0.3.v
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
========================================================
example4_i-e_t-0.3.v
 if (adv_en_i) begin

 end else if (id_en_i) begin

 end else if (gen_en_i) begin

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 end

 
========================================================
example5_i-e_t-0.3.v
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========================================================
example6_i-e_t-0.3.v
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========================================================
example7_i-e_t-0.3.v
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========================================================
example8_i-e_t-0.3.v
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========================================================
example9_i-e_t-0.3.v
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========================================================
example10_i-e_t-0.3.v
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========================================================
example11_i-e_t-0.3.v
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========================================================
example12_i-e_t-0.3.v
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========================================================
example13_i-e_t-0.3.v
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========================================================
example14_i-e_t-0.3.v
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example15_i-e_t-0.3.v
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example16_i-e_t-0.3.v
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example17_i-e_t-0.3.v
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example18_i-e_t-0.3.v
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example19_i-e_t-0.3.v
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example0_i-e_t-0.5.v
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========================================================
example1_i-e_t-0.5.v
 ex:
 if (kmac_data_i.ready)
 kmac_data_i.ready = 1'b0;
 else
 kmac_data_i.ready = 1'b1;
 ex:
 if (kmac_data_i.ready)
 kmac_data_i.ready = 1'b0;
 else
 kmac_data_i.ready = 1'b1;
 ex:
 if (kmac_data_i.ready)
 kmac_data_i.ready = 1'b0;
 else
 kmac_data_i.ready = 1'b1;
 ex:
 if (kmac_data_i.ready)
 kmac_data_i.ready = 1'b0;
 else
 kmac_data_i.
========================================================
example2_i-e_t-0.5.v
 if (adv_en_i)
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
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 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then
 else
 then

========================================================
example3_i-e_t-0.5.v
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========================================================
example4_i-e_t-0.5.v
 exe_i.exe_rt_vld = 1'b1;
 exe_i.exe_rt_vld = 1'b1;
 exe_i.exe_rt_vld = 1'b1;
 exe_i.exe_rp_vld = 1'b1;
 exe_i.exe_rp_vld = 1'b1;
 exe_i.exe_cp_vld = 1'b1;
 exe_i.exe_cp_vld = 1'b1;
 exe_i.exe_w_vld = 1'b1;
 exe_i.exe_w_vld = 1'b1;
 exe_i.exe_wp_vld = 1'b1;
 exe_i.exe_
========================================================
example5_i-e_t-0.5.v
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example6_i-e_t-0.5.v
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========================================================
example7_i-e_t-0.5.v
// it will be done at the very end of the cycle
// end
// else
//
// FIX:
// this will be done at the very end of the cycle
//
// end
// end
// end
// end


========================================================
example8_i-e_t-0.5.v
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========================================================
example9_i-e_t-0.5.v
//
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========================================================
example10_i-e_t-0.5.v
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	madness.
	
========================================================
example11_i-e_t-0.5.v
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========================================================
example12_i-e_t-0.5.v
// end else if (adv_en_i) begin
// FIX:
// end else if (id_en_i) begin
// FIX:
// end else if (gen_en_i) begin
// FIX:
// end


// we have to send out all the data from the last time to the current time
// we have to send the current input data as a new input
// we have to send the current data as a new output
// we have to send the current data as a new output


// in this case
// we have to send 1 entry from the last input to the current input
// we have to send 1 entry from the last output to the current output
// we have to send 1 entry from the current output to the current output
// we have to send 1 entry from the current input to the current input
// we have to send 1 entry from the current output to the current output
//
========================================================
example13_i-e_t-0.5.v
 it is possible to send multiple entries (all 20 bits are different)
 however, this feature is not used yet.
 So, for now, just keep this feature in mind
 and remove it when we use it

========================================================
example14_i-e_t-0.5.v
 
 The issue is that this is not for the entire frame, but for a single byte
 So, we can't use the same method as we use for the frames
 We need to see if the module is ready for the next byte
 this can be done by adding another output to the module
 So, we use the existing data input to the module and use a different
 output for the byte

 We need to see if we can get away with a single output for the entire frame

 we need to use the data byte to determine if we are done

 we need to use the data byte to determine if we are done

 we need to use the data byte to determine if we are done

 we need to use the data byte to determine if we are done

 we need to use the data byte to determine if we are done

 we
========================================================
example15_i-e_t-0.5.v
�



































































































========================================================
example16_i-e_t-0.5.v
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========================================================
example17_i-e_t-0.5.v
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========================================================
example18_i-e_t-0.5.v
// end
// end
// end
// end
// end
// end
// end
// end


// for the sake of testing, we have to have a certain amount of data
// in the output buffer.
//
// the data is stored in an array, and a certain amount of data is
// inserted into the output buffer.
//
// this is done to avoid the possibility of having the last
// entry of the input buffer be sent out with the same
// time stamp as the last entry of the output buffer.
//
// the amount of data to be inserted is defined by the
// parameter LAST_ENTRY_DIFF
//
// the parameter is set to 1 by default.
//
// the parameter is set to 0 by default.
//
// if the parameter is set to 1, then the input buffer
// must have exactly LAST_ENTRY_DIFF number of entries.

========================================================
example19_i-e_t-0.5.v
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========================================================
example0_i-e_t-0.7.v
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========================================================
example1_i-e_t-0.7.v
// utilize vld for checking when the last message is sent
// and it is not yet been sent...
//
//
//
//
//
//

========================================================
example2_i-e_t-0.7.v
// fixed with proper input handling
// if (kmac_data_i.ready then
// begin
// kmac_done_vld = 1'b1;
// end
// else
// begin
// kmac_done_vld = 1'b0;
// end

// comeback to original
// kmac_done_vld = 1'b0;
// end

// end
// end
// end
// end

// end


========================================================
example3_i-e_t-0.7.v
 end
 else if (adv_en_i)
 thenassign
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot
 plot

========================================================
example4_i-e_t-0.7.v
ipher_source_e = 8'b0;
 CHECK:
 {2'b11,3'b111} - {2'b11,6'b111111}
 {2'b11,6'b111111} - {2'b11,3'b111}
 {2'b11,3'b111} - {2'b11,6'b111111} = {2'b11,3'b111}
 {2'b11,6'b111111} - {2'b11,3'b111} = {2'b11,6'b111111}
 {2'b11,6'b111111} - {2'b11,3'b111} = {2'b11,3'b111}
 {2'b11,3'b111} - {2
========================================================
example5_i-e_t-0.7.v
// this should be skipped
// emblem sync
// emblem management
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========================================================
example6_i-e_t-0.7.v
	

========================================================
example7_i-e_t-0.7.v
�

========================================================
example8_i-e_t-0.7.v
// end
// else if (adv_en_i) begin
//��㱥羊G1
//agnarok: 
//
//

//
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========================================================
example9_i-e_t-0.7.v
hetics.remove(idx);
 appreciates that the read-modify-write cycle
 is not yet taken into account
 ??? this may race with the 
 key-generating task...
 do we need to do anything special here?
 or just use the same techniques as normal operations?
 because if a key is generated on the first
 key command, it will get used for the first
 output, which is what is happening here
 FIXED
 - the issue is the delayed data generation
 at the moment the data is generated, the
 key-generating task is still running.
 it is possible to use a synchronous read,
 but this will need to be done from the
 key-generating task, which is not in the 
 expected manner
 this will be the "main" key module for the 
 the key-deriv
========================================================
example10_i-e_t-0.7.v
// end
// end
// end
// end
// end


========================================================
example11_i-e_t-0.7.v
 이전신호에서 바인트러도링이 1사이클 진행된 신호가 포함된 간티저어를 확티해
 스코포매렉스카리매카이앝가된 타스카리매카이앝가들의 자가암 이암 가전가�
========================================================
example12_i-e_t-0.7.v
jtag_uart_0.rxd.I4.In.Data[2:0] = jtag_uart_0.rxd.I4.In.Data[2:0];














































































========================================================
example13_i-e_t-0.7.v
//endif
// end
// end
// end


// New state for sending in progress
// after each of the 8 bits of the input is sent
// the tx engine is released.
// The remote call will be done in a later state
// when the Tx engine is released.
// The state that will occur after the
// tx engine has been released is named StPeripherState
// This is the complete case for the 
// when the data is received
// In this state the tx engine is going to be released
// which means all the data is received and the TX is done.
// This is the state that the program should be in.
// When the TX is done the program can continue with the process
// of opening or closing the ports.

// resource management
// resources are released after 1s
always @ (posedge dut_clk) begin
if (reset_n) begin
========================================================
example14_i-e_t-0.7.v
/*
// though we are sending 16
// it will be keeping 16 in the done
// so I think we are doing anyway.
// we have to do it in a clean way
// so this might go into a seperate file
*/
//</a>


//</a>

//</a>


========================================================
example15_i-e_t-0.7.v
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
//
// 448
// 448
// 448
// 448
// 448
// 448
//

// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
//

// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
//
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
//

// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
// 448
//

//
========================================================
example16_i-e_t-0.7.v
// if (id_en_i) begin
// int32 modes_idx = (int32)kmac_data_i.data % 16;
// int32 modes_idx = (int32)kmac_data_i.data % 16;
// end else if (gen_en_i) begin
// int32 modes_idx = (int32)kmac_data_i.data % 2;
// int32 modes_idx = (int32)kmac_data_i.data % 2;
// end
// end


// TODO: Here is the error spot. This needs to be a global variable,
// not within the generator, but within the operation. Otherwise,
// it will completely screw up the next call for a different function.
// The ONLY time the call is within the generator is when it is reset.
// We need another reset function for when
========================================================
example17_i-e_t-0.7.v
 EMR v1.3.3 - September 1, 2017. Repaired issue that caused a hang with respect to the Assassination.

 From: ARM Consulting Group, LLC

 The report of the issue was reproduced with the following:

 The Dispatcher was able't be initalized for some reason.

 This can be solved by enabling the Dispatcher to receive the tokens.

 The original report was as follows:

 The Dispatcher couldn't be initialized for unknown reasons.

 The report was reproduced by:

 1. Ensuring that the Dispatcher is properly enabled.

 2. Disabling the SDRAM Controller.

 3. Enabling the SDRAM Controller.

 The result was that the system would eventually hang.

 The proper solution was achieved by fixing
========================================================
example18_i-e_t-0.7.v
// airtech party
// }
// regularly send a "0" byte to keep this driver running
// if the output is not selected, this codepath will not be executed
//
// initially the output is expected to be
// a) a "0" byte
// b) a "1" byte
// this test is designed to verify that the resulting data is properly
// transmitted.
// in the event of a timeout, the test will be stopped
//: any given input
//: the current input
//: the output
//: the resulting output
// from the the following source:
// `C:\Users\Max\Documents\School\Classes\ECE308\ECE308\Test\Test_Convert_Integer_to_ASCII.py`

//: example of a positive output
//: from the source
//: this should be transmitted as "1"
//: the
========================================================
example19_i-e_t-0.7.v
神禍止冗需要将设置参数放在上边
神禍止冗需要将设置参数放在上边
��
神禍止冗需要将设置参数放在上边
 疑门，提交任务阶段不会调用当前的工作节点，只会调用上一个指定的节点
 疑门，提交任务
========================================================
example0_i-e_t-0.9.v
// lessen the chance of false negative multiple output at once
// when all the bits are on at the same time
//!!!
//this implementation is incorrect as it needs the 
//maximum complex group to have a 1:1 work out.
//What needs to be correct is where the program puts the work out. 
//Then it should give back the feedback. No proceing.
//It means that the feedback one by one no progress report.
//The output of the program is what provide the standard output. 
//The progress of the works will been able to
//the/users/<e-mail>/<container>/<works>/<scanID>/summary.txt 
//Observe that the output is a text file, please link the real output
//if the output does not work the degraded version may get disputed.

//this version work, need to include the number of 
//
========================================================
example1_i-e_t-0.9.v
// Everybody gets a best fit legal contract not working.
// Just DOCUMENT that single allow can produce a best fit.
// It is such good fit, where you will be able to find it in the
// high assurance way. All this raised, You must report the problem.
// https://en.wikipedia.org/wiki/Best_fit
parameter contract_meditation = 6'd18;
parameter contract_woe = 6'd19;
parameter contract_highest = {6'd32, 6'b11111111};
assign pathwayallow = $allow; // for dependent collateral
assign contractwoe = (pathwayallow == contract_meditation)? 6'd19:contract_woe;
assign highest_s_allow = ((pathwayallow | contract_meditation) | contract_highest) | contract_highest; // for s
assign highest_s_allow_exception =
========================================================
example2_i-e_t-0.9.v
$display ("%x",'0);
$display ("%d",$bits);
//endon ();
//
========================================================
example3_i-e_t-0.9.v
/*
"//003: [\n\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\n\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\t\
========================================================
example4_i-e_t-0.9.v
//edient_if_valid = e_if_valid;
// END OF TEST

// l8r e_if_valid tester

//incomeif (e_if_valid) begin
//ene_if_valid = 1'b1;
//
========================================================
example5_i-e_t-0.9.v
// --kmac

========================================================
example6_i-e_t-0.9.v
`ifdef L7_DEVICE
  const l2_hdr_t hdr0 (
 .d0(kmac_data_o),
 .d1(kmac_data_o[55:16]),
 .d2(kmac_data_o[47:32]),
 .d3(kmac_data_o[31:0]),
 .en(id_en_o)
   );
   const l2_hdr_t hdr1 (
   .d0(kmac_data_o[32:8]),
   .d1(kmac_data_o[7:0]),
   .d2(kmac_data_o[47:32]),
   .d3(kmac_data_o[31:0]),
   .en(id_en_o)
========================================================
example7_i-e_t-0.9.v
if (id_en_i)
begin
assign conf_data_from_id_panel[90:69] = {"kmacplus_type", "kmacplus_id_no", "kmacplus_id_hex"};

========================================================
example8_i-e_t-0.9.v
// prepare K-psi ready operations to be checked against
// out of stream ciphering ...


// offline-tasks only cares about output ciphering
// proposed to keep tasks readable
// memcpy is fine - it just cannot capture and keep the output byte array.
// lui - immediate 4-bytes
// 
// generate a string using the cmd bit (encryption)
// or generate a string using the data byte for decryption.
// it would be very complicated, practice and theory is enough.
// 

if (rounds == 0)
begin
pid[0] = s[19] ^ s[7] ^ s[11] ^ s[18] ^ s[0]};
pid[1] = s[17] ^ s[0] ^ s[10] ^ s[11] ^ s[19] ^ s[2];
pid[2] = s[
========================================================
example9_i-e_t-0.9.v
// tribunal
// 😝 version control comment
// ****************************************************
// WARNING: Hardcoded panel in pear covering (real-optimised)
// (in this instance: "X")

// however this feature was observed
// https://github.com/gamma-cervis-corp/pearson-mobile-cloud(input)
// from a user with project
// https://github.com/gamma-corp/pearson-mobile-si-2017-tenam-project-github/blob/master/Project-report/1-Report_Title_Integration_Testing_Repo-verification.md
// but panel could've been derived from file content instead
// Thus:

/*

<div style="z-index:-1;" class="pr-md-direct-control-container pr-anim-slideanim-from-left pr-md-shared-container-
========================================================
example10_i-e_t-0.9.v
// SY-2017-03-10 -- starts here. It has lumberjacks.
// feel free to remove and use "legacy path" option.
// dogma "Pervasive MAC Format Specification"
////// proteçìis - Eidel de acessos de cada vez
// apostroficador http://www.iolem.com/apaster/
// aquíse hacer la descripción del modo de línea de símbolos
// españar pitchbits ymax 2-phase
// verificar sintaxis cuando esta llamando
// start (es el curso dedo de la histográfía cuento
// incorporar botón de verificación
// un salador de estado generado libro fim y dentro
// esque existen líneas sólo dentro

========================================================
example11_i-e_t-0.9.v
//

//
//
/*
// Works:
// ls -lAliasName/myFile.txt.gphtk/exec.dd.gz/myFile.txt.dd.gz/myFile.txt.ext.gphtk
// grep -l to include MACE and HRMC algorithms
// ls -lmyFile.txt.gphtk/PpiFile.txt.gphtk/Output.svdpy
// ls -t "PpiFile.txt.gphtk/Hrst.sfdp" --output Output.svdpy
// ls -tM "Hrst.sfdp"

//
//

// Operations to do:
// a. Extract an specific layer
// b. Visualise an specific layer
// c. Extract and visualise all layers
// d. Extract and analyse all images and all visible layers
// e. 

========================================================
example12_i-e_t-0.9.v
// ($)sys.join() has a time delay of 2 seconds before it lets the user to re-open the results file (temperature results file for this testbench)
// (it seems that the macro is sometimes called before the second delay to it through it.
// So, it it shouldn't be assigned in the beginning of the file for the testbench application, because the testbench will
// have to run for the sudden change of the file later, or the application will have to wait the 2 seconds before
// it can run the application.
// *)DEL MODE
assign done = (wes_mode_01) ? (&wes_time_budget) : &wes_time_budget;
// WORK SQUARISH PROJECT YEAR MARCH 29K 2020


// *** SYSTEM CONFIG
wav_valid = 1'b1;
// ($)FROM TO CHECK
// ($)GRADE
========================================================
example13_i-e_t-0.9.v
//ize this only if estabeleed to prevent module from being executed 3 time
// when ich is calling kernel.
// required if the work manager will return any values
// so the data pipeline is working properly
// not great if this is kept at it is everything else had been set
// such as input selections.
// should be able.

//


endezm

assignespie = inspiral != '0 ? 1'b0 : er1 && !SC1_valid && !SC2_valid && SC3_valid && SC11;
assigneecho = eneecho ? er2 : ep1;
assignechtia = {(SC1_valid ^ SC11 && relevant) ? 2'b11: 2'b10, er2};
assignksr_skip = kvld && SC3_valid && !erk;
assignxecdi = keecc
========================================================
example14_i-e_t-0.9.v
// phenomenom.}{27 28 Sep 2014 16:55:09}


// wmar_tx_thread.{} vld event
{6} vl.

//TEST: [336] vain_timeout
//#define VINT_BUG_WORKAROUND	
module uart_recv (input wire clk, rst, serial_in, output wire[7:0] out_data, output wire[7:0] out_data_cs, output wire csb_out,
 input [7:0] reg_data, input [3:0] reg_data_cs);

reg [3:0] rdata_cs_r;
reg [3:0] rdata_cs;

// b start bit
reg bit_start;
// r data bit
reg [7:0] rdata;
// c data bit
reg [3:
========================================================
example15_i-e_t-0.9.v
// Ethiopia
// pyrolog
// sexi pyo 
// ethersex.com
// copyright 2009 Goto Engineering, LLC
module gofed (input [39:0] in, output [39:0] out);
assign out = {in[31:28], in[27:20], in[15:14], in[19:18]};

========================================================
example16_i-e_t-0.9.v
racist Ahmed Feni" /" ro?" lovely precision mistakes in landi" test bench?????
 	 H.I. :)
 	 MySQL does so, but it is used by code to fill data later...
 	 Perhaps there is an easier way that make yielded data in correct time
 Please, see for more info on http:www.fiber.ece.uwl.edu/userdocs/pdfs/03_http-web/index.html#code-title:
 convert them and they will come out in correct time 
 (example):
 {DataIn} : 11 bytes to be loaded => correct read rate
 {DataOut} : 1129 bytes coming out (correct event rate), bit delay: 64*8=64...
 {ISocIn} : 111950 bytes coming out (correct event rate), bit delay: 68*8=64...
 {IS
========================================================
example17_i-e_t-0.9.v
// slurs can be set
l
where l = `sluls;


========================================================
example18_i-e_t-0.9.v
// it should be >= or < check on the values. 
// mechanics using return as a parameter.
// @SRS FIXED THE AND THE ASSIGNMENT
//'block!= ID? THERE IS NO WAY TO HAVE THESE THINGS HAPPEN???
"!=ID"
;





========================================================
example19_i-e_t-0.9.v
 so we could pack such runing buffer as a support
 in runing mode

========================================================
