Transport in HgTe

A few points need correction.

1. Formula is wrong
   You wrote: R = V/R
   It should be:

   R = V/I

   where R is resistance, V is measured longitudinal voltage, and I is the applied current.

2. Sample B description says magnetic field, but the file appears to use gate voltage
   For Vxx_Sample B, your structure says the first column is gate voltage, and the worksheet header also indicates Vg, not magnetic field. So “magnetic field” should be changed to gate voltage, unless this is actually a different file from the uploaded workbook.

3. CSV structure wording
   Based on the workbook structure, the temperature values are in the header row above the voltage data, and the first column is gate voltage Vg. That part is correct.

Here is a corrected version:

File: Vxx_Sample A

This dataset contains measured longitudinal voltage values, Vxx, in volts, for Sample A as a function of temperature and gate voltage. The applied current was I = 10⁻⁷ A. The longitudinal resistance can be calculated using:

R = V / I

where R is resistance, V is the measured longitudinal voltage, and I is the applied current.

The data are structured in a CSV file where:

• The first row lists temperature values in kelvin, K.

• The first column lists gate voltage, Vg, in volts, V.

• The remaining cells contain measured longitudinal voltage values, Vxx, in volts.

File: Vxx_Sample B

This dataset contains measured longitudinal voltage values, Vxx, in volts, for Sample B as a function of temperature and gate voltage. The applied current was I = 10⁻⁷ A. The longitudinal resistance can be calculated using:

R = V / I

where R is resistance, V is the measured longitudinal voltage, and I is the applied current.

The data are structured in a CSV file where:

• The first row lists temperature values in kelvin, K.

• The first column lists gate voltage, Vg, in volts, V.

• The remaining cells contain measured longitudinal voltage values, Vxx, in volts.

This version is correct for Zenodo deposition, assuming Sample B is gate-voltage dependent rather than magnetic-field dependent.