Signal Generator - Test Suite

Note

User guide: Scopy Overview.

Note

Tester	Test Date	Scopy version	Plugin version (N/A if not applicable)	Comments

Setup environment:

M2k.Usb:

• Open Scopy.

• Connect an ADALM2000 device to the system by USB.

• Add the device in device browser.

Test 1: Channel 1 Operation

UID: TST.M2K.SG.CHANNEL_1_OPERATION

Description: This test case verifies the operation of the channel 1 of the signal generator.

Preconditions:

• OS: ANY

• Use M2k.Usb setup.

Steps:

1. Test the constant voltage generator

2. Turn on channel 1 and view the configuration window by clicking the on/off button and menu button respectively. Choose Constant from the configuration menu.

3. Checking increment/decrement value; ±1V

4. Set the knob to ± 1V interval. No orange dot on the center.

5. Change the voltage value using the up and down arrow.

   • Expected Result:

     • The voltage value should change accordingly with an increment or decrement of ±1V from -5V to 5V.

     • The graphical representation should follow accordingly.

   • Actual Result:

6. Checking increment/decrement value; ±100mV

7. Set the knob to ± 100mV interval. With orange dot on the center.

8. Change the voltage value using the up and down arrow.

   • Expected Result:

     • The voltage value should change accordingly with an increment or decrement of ±100mV from -5V to 5V.

     • The graphical representation should follow accordingly.

   • Actual Result:

9. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd

10. Set the following:

    • The voltage value of the signal generator to 4.5V

    • The Oscilloscope’s Volts/div from 1V/div to 5V/div and set the trigger mode to auto.

      • Expected Result: The voltage reading on the oscilloscope should be from 4.4V to 4.6V using the cursor or from the measured data.

      • Actual Result:

11. Set the following:

    • The voltage value of the signal generator to -4.5V

    • The Oscilloscope’s Volts/div from 1V/div to 5V/div and set the trigger mode to auto.

      • Expected Result: The voltage reading on the oscilloscope should be from -4.4V to -4.6V using the cursor or from the measured data.

      • Actual Result:

12. Testing different waveform types

13. Turn on channel 1 and view the configuration window by clicking the on/off button and menu button respectively. Choose Waveform from the configuration menu

14. Checking increment/decrement value of Amplitude and Frequency; Large increment

15. Set the knob to without the orange dot on the center.

16. Change the Amplitude or Frequency value using the up and down arrow

    • Expected Result:

      • The amplitude value should change accordingly with a high increment/decrement from 1uV to 10V.

      • The frequency value should change accordingly with a high increment/decrement from 1mHz to 20MHz.

      • The graphical representation should follow accordingly.

    • Actual Result:

17. Checking increment/decrement value of Amplitude and Frequency; ±1 unit on least significant digit

18. Set the knob to with the orange dot on the center.

19. Change the voltage or frequency value using the up and down arrow.

    • Expected Result:

      • The Amplitude value should change accordingly with a ±1 unit on the least significant digit from 1uV to 10V.

      • The frequency value should change accordingly with a ±1 unit on the least significant digit from 1mHz to 20MHz.

      • The graphical representation should follow accordingly.

    • Actual Result:

20. Checking increment/decrement value of the Offset Voltage and Phase; ±1V and ±45°

21. Set the knob without the orange dot on the center.

22. Change the Offset voltage or Phase value using the up and down arrow.

    • Expected Result:

      • The Offset voltage value should change accordingly with ±1 increment/decrement from -5V to 5V.

      • The phase value should change accordingly with a ±45 increment/decrement from 0° to 360°.

      • The graphical representation should follow accordingly.

    • Actual Result:

23. Checking increment/decrement value of Offset voltage and Phase; ±100mV and ±1°

24. Set the knob to with the orange dot on the center.

25. Change the Offset voltage or Phase value using the up and down arrow.

    • Expected Result:

      • The Offset voltage value should change accordingly with ±.1 increment/decrement from -5V to 5V.

      • The phase value should change accordingly with ±1 increment/decrement from 0° to 360°.

      • The graphical representation should follow accordingly.

    • Actual Result:

26. Testing Sinewave Waveform

27. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd.Set the following:

28. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Tveform: Sinewave, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 500mV/div, trigger mode: Auto and time base: 5ms.

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 5ms, Frequency: 200Hz, Peak-peak: 4.8V to 5.2V.

      • Actual Result:

29. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 10V, Frequency: 500kHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 2V/div, trigger mode: Auto and time base: 1us.

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 2.000us, Frequency: 500 kHz, Peak-peak: 9.6V to 10.2V.

      • Actual Result:

30. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 10V, Frequency: 5MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 200ns.

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 200ns, Frequency: 5MHz, Peak-peak: 8.9V to 9.2V.

      • Actual Result:

31. Testing Square Waveform

32. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 5ms.

      • Expected Result:

        • Use the Oscilloscope’s cursor to check the peak to peak value of the Square wave generated, do not include the inherent overshoot of the signal.

        • The measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.5V.

      • Actual Result:

33. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 10V, Frequency: 5MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 2V/div, trigger mode: Auto and time base: 100ns.

      • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 9.8V to 10.2V and Min/Max: ±5V

      • Actual Result:

34. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 7V, Duty Cycle: 20%, Frequency: 100 kHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2us.

      • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 6.8V to 7.2V and Min/Max: ±3.5V, +Duty Cycle: 20%, -Duty Cycl: 80%

      • Actual Result:

35. Repeat step 34 with varying duty cycle from 1% to 99%

    • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 6.8V to 7.2V and Min/Max: ±5V and the varying ±Duty Cycle.

    • Actual Result:

36. Testing Triangle Waveform

37. Set the following:

    • Signal generator’s waveform: Triangle, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms

      • Expected Result: Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6V.

      • Actual Result:

38. Set the following:

    • Signal generator’s waveform: Triangle, Amplitude 8V, Frequency: 2MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 100ns

      • Expected Result: Oscilloscope’s measurement should be Period: 500.000ns, Frequency: 2MHz, peak to peak value: 7.8V to 8.2V and Min/Max: +/- 3.9V.

      • Actual Result:

39. Testing Rising Ramp Sawtooth Waveform

40. Set the following:

    • Signal generator’s waveform: Rising Ramp Sawtooth, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.7V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

41. Set the following:

    • Signal generator’s waveform: Rising Ramp Sawtooth, Amplitude 8V, Frequency: 1MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 1us.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 1.000us, Frequency: 1MHz, peak to peak value: 7.8V to 8.2V and Min/Max: ±3.9V to ±4.1V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

42. Testing Falling Ramp Sawtooth Waveform

43. Set the following:

    • Signal generator’s waveform: Falling Ramp Sawtooth, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms.

      • Expected Result: Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6V

      • Actual Result:

44. Set the following:

    • Signal generator’s waveform: Falling Ramp Sawtooth, Amplitude 8V, Frequency: 1MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 1us.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 1.000us, Frequency: 1MHz, peak to peak value: 7.8V to 8.2V and Min/Max: ±3.9V to ±4.1V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

45. Testing Trapezoidal waveform

46. Set the following:

    • Signal generator’s waveform: Trapezoidal, Amplitude: 5V, Rise Time: 1us, Fall Time: 1us, Hold High Time: 1us, Hold Low time Time: 1us.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 1us.

      • Expected Result: Oscilloscope’s measurement should be Period: 4.000us, Frequency: 250kHz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6.

      • Actual Result:

47. Set the following:

    • Signal generator’s waveform: Trapezoidal, Amplitude: 10V, Rise Time: 1us, Fall Time: 1us, Hold High Time: 1us, Hold Low time Time: 1us.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 1us.

      • Expected Result: Oscilloscope’s measurement should be Period: 4.000us, Frequency: 250kHz, peak to peak value: 9.6V to 10.4V and Min/Max: ±4.8V to ±5.2.

      • Actual Result:

48. Set the following:

    • Signal generator’s waveform type: Trapezoidal, Amplitude: 10V, Rise Time: 200ns, Fall Time: 200ns, Hold High Time: 200ns, Hold Low time: 200ns.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 200ns

      • Expected Result: Oscilloscope’s measurement should be Period: 800ns, Frequency: 1.250MHz, peak to peak value: 9.6V to 10.4V and Min/Max: ±4.8V to ±5.2.

      • Actual Result:

Tested OS:

Comments:

Result: PASS/FAIL

Test 2: Channel 2 Operation

UID: TST.M2K.SG.CHANNEL_2_OPERATION

Description: This test case verifies the operation of the channel 2 of the signal generator.

Preconditions:

• OS: ANY

• Use M2k.Usb setup.

Steps:

1. Test the constant voltage generator

2. Turn on channel 2 and view the configuration window by clicking the on/off button and menu button respectively. Choose Constant from the configuration menu.

3. Checking increment/decrement value; ±1V

4. Set the knob to ± 1V interval. No orange dot on the center.

5. Change the voltage value using the up and down arrow

   • Expected Result:

     • The voltage value should change accordingly with an increment or decrement of ±1V from -5V to 5V.

     • The graphical representation should follow accordingly.

   • Actual Result:

6. Checking increment/decrement value; ±100mV

7. Set the knob to ± 100mV interval. With orange dot on the center.

8. Change the voltage value using the up and down arrow

   • Expected Result:

     • The voltage value should change accordingly with an increment or decrement of ±100mV from -5V to 5V.

     • The graphical representation should follow accordingly.

   • Actual Result:

9. Connect AWG ch2 to scope ch2+ and scope ch2- to gnd

10. Set the following:

    • The voltage value of the signal generator to 4.5V

    • The Oscilloscope’s Volts/div from 1V/div to 5V/div and set the trigger mode to auto.

      • Expected Result: The voltage reading on the oscilloscope should be from 4.4V to 4.6V using the cursor or from the measured data.

      • Actual Result:

11. Set the following:

    • The voltage value of the signal generator to -4.5V

    • The Oscilloscope’s Volts/div from 1V/div to 5V/div and set the trigger mode to auto.

      • Expected Result: The voltage reading on the oscilloscope should be from -4.4V to -4.6V using the cursor or from the measured data.

      • Actual Result:

12. Testing different waveform types

13. Turn on channel 2 and view the configuration window by clicking the on/off button and menu button respectively. Choose Waveform from the configuration menu

14. Checking increment/decrement value of Amplitude and Frequency; Large increment

15. Set the knob to without the orange dot on the center.

16. Change the Amplitude or Frequency value using the up and down arrow

    • Expected Result:

      • The amplitude value should change accordingly with a high increment/decrement from 1uV to 10V.

      • The frequency value should change accordingly with a high increment/decrement from 1mHz to 20MHz.

      • The graphical representation should follow accordingly.

    • Actual Result:

17. Checking increment/decrement value of Amplitude and Frequency; ±1 unit on least significant digit

18. Set the knob to with the orange dot on the center.

19. Change the voltage or frequency value using the up and down arrow

    • Expected Result:

      • The Amplitude value should change accordingly with a ±1 unit on the least significant digit from 1uV to 10V.

      • The frequency value should change accordingly with a ±1 unit on the least significant digit from 1mHz to 20MHz.

      • The graphical representation should follow accordingly.

    • Actual Result:

20. Checking increment/decrement value of the Offset Voltage and Phase; ±1V and ±45°

21. Set the knob without the orange dot on the center.

22. Change the Offset voltage or Phase value using the up and down arrow

    • Expected Result:

      • The Offset voltage value should change accordingly with ±1 increment/decrement from -5V to 5V.

      • The phase value should change accordingly with a ±45 increment/decrement from 0° to 360°.

      • The graphical representation should follow accordingly.

    • Actual Result:

23. Checking increment/decrement value of Offset voltage and Phase; ±100mV and ±1°

24. Set the knob to with the orange dot on the center.

25. Change the Offset voltage or Phase value using the up and down arrow

    • Expected Result:

      • The Offset voltage value should change accordingly with ±.1 increment/decrement from -5V to 5V.

      • The phase value should change accordingly with ±1 increment/decrement from 0° to 360°.

      • The graphical representation should follow accordingly.

    • Actual Result:

26. Connect AWG ch2 to scope ch2+ and scope ch2- to gnd

27. Testing Sinewave Waveform

28. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 500mV/div, trigger mode: Auto and time base: 5ms..

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 5ms, Frequency: 200Hz, Peak-peak: 4.8V to 5.2V

      • Actual Result:

29. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 10V, Frequency: 500kHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 2V/div, trigger mode: Auto and time base: 1us.

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 2.000us, Frequency: 500 kHz, Peak-peak: 9.6V to 10.2V

      • Actual Result:

30. Set the following:

    • Signal generator’s waveform: Sinewave, Amplitude 10V, Frequency: 5MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 200ns.

      • Expected Result: The measurement reading on Oscilloscope should be: Period: 200ns, Frequency: 5MHz, Peak-peak: 8.9V to 9.2V

      • Actual Result:

31. Testing Square Waveform

32. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 5ms.

      • Expected Result:

        • Use the Oscilloscope’s cursor to check the peak to peak value of the Square wave generated, do not include the inherent overshoot of the signal.

        • The measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.5V.

      • Actual Result:

33. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 10V, Frequency: 5MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 2V/div, trigger mode: Auto and time base: 100ns.

      • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 9.8V to 10.2V and Min/Max: ±5V

      • Actual Result:

34. Set the following:

    • Signal generator’s waveform: Square wave, Amplitude 7V, Duty Cycle: 20%, Frequency: 100 kHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2us.

      • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 6.8V to 7.2V and Min/Max: ±3.5V, +Duty Cycle: 20%, -Duty Cycl: 80%

      • Actual Result:

35. Repeat step 34 with varying duty cycle from 1% to 99%

    • Expected Result: Oscilloscope’s measurement should be Period: 200ns, Frequency: 5MHz, peak to peak value: 6.8V to 7.2V and Min/Max: ±5V and the varying ±Duty Cycle

    • Actual Result:

36. Testing Triangle Waveform

37. Set the following:

    • Signal generator’s waveform: Triangle, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms.

      • Expected Result: Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6V

      • Actual Result:

38. Set the following:

    • Signal generator’s waveform: Triangle, Amplitude 8V, Frequency: 2MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 100ns.

      • Expected Result: Oscilloscope’s measurement should be Period: 500.000ns, Frequency: 2MHz, peak to peak value: 7.8V to 8.2V and Min/Max: +/- 3.9V

      • Actual Result:

39. Testing Rising Ramp Sawtooth Waveform

40. Set the following:

    • Signal generator’s waveform: Rising Ramp Sawtooth, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.7V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

41. Set the following:

    • Signal generator’s waveform: Rising Ramp Sawtooth, Amplitude 8V, Frequency: 1MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 1us.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 1.000us, Frequency: 1MHz, peak to peak value: 7.8V to 8.2V and Min/Max: ±3.9V to ±4.1V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

42. Testing Falling Ramp Sawtooth Waveform

43. Set the following:

    • Signal generator’s waveform: Falling Ramp Sawtooth, Amplitude 5V, Frequency: 200Hz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 2ms.

      • Expected Result: Oscilloscope’s measurement should be Period: 5.000ms, Frequency: 200Hz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6V.

      • Actual Result:

44. Set the following:

    • Signal generator’s waveform: Falling Ramp Sawtooth, Amplitude 8V, Frequency: 1MHz, offset: 0V and Phase: 0 degrees.

    • Oscilloscope: Volts/div: 1V/div, trigger mode: Auto and time base: 1us.

      • Expected Result:

        • Oscilloscope’s measurement should be Period: 1.000us, Frequency: 1MHz, peak to peak value: 7.8V to 8.2V and Min/Max: ±3.9V to ±4.1V.

        • Use the Oscilloscope’s cursor to disregard the overshoot of the signal.

      • Actual Result:

45. Testing Trapezoidal waveform

46. Set the following:

    • Signal generator’s waveform: Trapezoidal, Amplitude: 5V, Rise Time: 1us, Fall Time: 1us, Hold High Time: 1us, Hold Low time Time: 1us.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 1us.

      • Expected Result: Oscilloscope’s measurement should be Period: 4.000us, Frequency: 250kHz, peak to peak value: 4.8V to 5.2V and Min/Max: ±2.4V to ±2.6.

      • Actual Result:

47. Set the following:

    • Signal generator’s waveform: Trapezoidal, Amplitude: 10V, Rise Time: 1us, Fall Time: 1us, Hold High Time: 1us, Hold Low time Time: 1us.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 1us.

      • Expected Result: Oscilloscope’s measurement should be Period: 4.000us, Frequency: 250kHz, peak to peak value: 9.6V to 10.4V and Min/Max: ±4.8V to ±5.2.

      • Actual Result:

48. Set the following:

    • Signal generator’s waveform: Trapezoidal, Amplitude: 10V, Rise Time: 200ns, Fall Time: 200ns, Hold High Time: 200ns, Hold Low time: 200ns.

    • Oscilloscope: Volt/div: 2V, Trigger Mode: Auto and Time Base: 200ns.

      • Expected Result: Oscilloscope’s measurement should be Period: 800ns, Frequency: 1.250MHz, peak to peak value: 9.6V to 10.4V and Min/Max: ±4.8V to ±5.2.

      • Actual Result:

Tested OS:

Comments:

Result: PASS/FAIL

Test 3: Channel 1 and Channel 2 Operation

UID: TST.M2K.SG.CHANNEL_1_AND_CHANNEL_2_OPERATION

Description: This test case verifies the operation of the channel 1 and channel 2 of the signal generator.

Preconditions:

• OS: ANY

• Use M2k.Usb setup.

Steps:

1. Test constant voltage generator for both channels simultaneously

2. Turn on channels 1 and 2 and view the configuration window by clicking the on/off button then the menu button. Choose Constant from the configuration menu for both channels

3. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd. Connect AWG ch2 to scope ch2+ and scope ch2- to gnd

4. Set signal generator’s channel 1 to 4.5V and channel 2 to -4.0V

   • Expected Result: Open voltmeter instrument in DC mode. Channel 1 should have a voltage of 4.4V to 4.6V and channel 2 should have a voltage of -4.1V to -3.9V

   • Actual Result:

5. Set signal generator’s channel 1 to -4.5V and channel 2 to 4.0V

6. Test different waveforms for both channels simultaneously

7. Turn on channels 1 and 2 and view the configuration window by clicking the on/off button then the menu button. Choose waveform from the configuration menu for both channels

8. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd. Connect AWG ch2 to scope ch2+ and scope ch2- to gnd

9. Test phase configuration

10. Set signal generator channels 1 and 2 to either Sine or Triangle waveform type, they should be the same.

    • Channel 1: Amplitude: 5V, Frequency: 5kHz, offset: 0V and phase: 0°.

    • Channel 2: Amplitude: 5V, Frequency: 5kHz, offset: 0V and phase: 180°.

    • Set Oscilloscope’s both channel to Time Base: 200us, Volts/Div: 1V.

11. Run Oscilloscope, add channel with an input function: f(t) = sin(t1) + sin(t0).

    • Expected Result: The new plot’s value should be very close to 0V ranging around -0.2V to 0.2V

    • Actual Result:

12. Set signal generator channels 1 and 2 to either Sine or Triangle waveform type, they should be the same.

    • Channel 1: Amplitude: 5V, Frequency: 5kHz, offset: 0V and phase: 0°.

    • Channel 2: Amplitude: 5V, Frequency: 5kHz, offset: 0V and phase: 0°.

    • Set Oscilloscope’s both channel to Time Base: 200us, Volts/Div: 1V.

13. Run Oscilloscope, add channel with an input function: f(t) = sin(t1) - sin(t0).

    • Expected Result: The new plot’s value should be very close to 0V ranging around -0.2V to 0.2V

    • Actual Result:

Tested OS:

Comments:

Result: PASS/FAIL

Test 4: Additional Features

UID: TST.M2K.SG.ADDITIONAL_FEATURES

Description: This test case verifies the additional features of the signal generator.

Preconditions:

• OS: ANY

• Use M2k.Usb setup.

Steps:

1. Test Noise.

2. Turn on Signal Generator’s channel 1 and set the following parameters:

   • Waveform Type: Square Wave, Amplitude: 3V, Offset: 1.5V, Frequency: 1kHz, Phase: 0 degrees and Duty Cycle: 50%

3. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd.

   • Expected Result: Check in the Oscilloscope if the Square Wave signal generated is from 0V to 3V.

   • Actual Result:

4. Under Noise choose Uniform Noise Type in the dropdown menu and set it to 500mV.

5. Set the Oscilloscope’s setting to Time Base: 100us, Volts/Div: 500mV/Div; Using the cursors measure the noise generated in the square waveform.

   • Expected Result: The measured voltage should be close to 500mV.

   • Actual Result:

6. Repeat steps 1.3 and 1.4 using different Noise Amplitude [1V, 1.5V, 2V and 2.5V]

   • Expected Result: The measured voltage should be close to the desired noise voltage.

   • Actual Result:

7. Test Buffer

8. Download buffer test files from here. Open Signal Generator Instrument and click the Buffer Tab.

9. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd

10. Test .csv file

11. Load the .csv file from the downloaded .zip file

    • Expected Result: The signal generated should be a stair step signal.

    • Actual Result:

12. Test .mat file

13. Press “Load file” button and make sure the field “File of type” in the dialog box is set to “MATLAB Files (*.mat)”.

14. Load the .mat file from the downloaded .zip file. Set the frequency to 20kHz, and the time base of Oscilloscope to 10ms.

    • Expected Result: The signal generated should be a sine wave signal.

    • Actual Result:

15. Test Math

16. Open Signal Generator Instrument and click the Math tab

17. Connect AWG ch1 to scope ch1+ and scope ch1- to gnd

18. Generate Sine waves

19. In the Signal Generator Math Function tab:

    • set frequency to 100Hz

    • type in the function box 5*sin(t) and click apply.

    • in the Oscilloscope instrument set Volts/div: 1V/div, Trigger: Auto, Time base: 2ms

      • Expected Result: The generated sine wave signal should have the following parameters:

        • peak to peak: 9.6V to 10.4V

        • frequency: 100Hz

        • period: 10ms

      • Actual Result:

20. In the Signal Generator Math Function tab:

    • set frequency to 1kHz

    • type in the function box 4*sin(10*t) and click apply.

    • in the Oscilloscope instrument set Volts/div: 1V/div, Trigger: Auto, Time base: 20us

      • Expected Result: The generated sine wave signal should have the following parameters:

        • peak to peak: 7.6V to 8.4V

        • frequency: 10kHz

        • period: 100us

      • Actual Result:

21. In the Signal Generator Math Function tab:

    • set frequency to 100kHz

    • type in the function box 3*sin(50*t) and click apply.

    • in the Oscilloscope instrument set Volts/div: 1V/div, Trigger: Auto, Time base: 100ns

      • Expected Result: The generated sine wave signal should have the following parameters:

        • peak to peak: 5.6V to 6.4V

        • frequency: 5MHz

        • period: 200ns

      • Actual Result:

22. Generate Square waves

23. In the Signal Generator Math Function tab:

    • set frequency to 500kHz

    • type in the function box 4*sin(t) + 4*sin(3*t)/3 + 4*sin(5*t)/5 + 4*sin(7*t)/7 + 4*sin(9*t)/9 + 4*sin(11*t)/11 (you can copy and paste the text to Scopy) and click apply.

    • in the Oscilloscope instrument set Volts/div: 1V/div, Trigger: Auto, Time base: 500ns

      • Expected Result: The generated square wave signal should have the following parameters:

        • peak to peak: 7V to 7.4V

        • frequency: 500kHz

        • period: 2us

      • Actual Result:

24. Waveform Phase – Seconds

25. Open Waveform tab. Set frequency to 500Hz. Set Phase to 90 degrees. Then change phase unit to seconds.

    • Expected Result: The value of Phase should automatically change to 500us that is 90 degrees in seconds for a frequency of 500Hz.

    • Actual Result:

26. Increase and decrease the value of phase.

    • Expected Result: The display should follow accordingly.

    • Actual Result:

27. Increase phase value to 1.5 ms. Then change again the unit to degrees.

    • Expected Result: The value should now be 270 degrees.

    • Actual Result:

28. Change frequency to 1 MHz. Then set phase to 1us. This corresponds to a full period of a 1MHz frequency.

29. Change phase unit to degrees.

    • Expected Result: The value should be 360 degrees.

    • Actual Result:

Tested OS:

Comments:

Result: PASS/FAIL