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1 Electro Magnetic Compatibility Test Report Regarding the CE Mark Compliance of the EVAL-ADICUP3029 Baseboard And EVAL-ADT4720-PMDZ PMOD board In Accordance with the Information Technology Standards EN 55032:2015 for Emissions And EN 55024:2010 for Immunity Revision History Release Date Description May 2017 Initial release Page 1 of 51

2 Description of Equipment Under Test (EUT) Test Item : Design Evaluation Board Model number : EVAL-ADICUP3029 with EVAL-ADT4720-PMDZ PMOD Manufacturer : Analog Devices Manufacturer s information Manufacturers Representative : Brandon Bushey Company : Analog Devices Address : 804 Woburn St. Wilmington, MA U.S.A. Website : Tests Performed at Address : EMI Test Lab LLC 1822 Skyway Drive Unit J Longmont, Colorado U.S.A Website : Test Specifications : EN 55032:2015 and EN 55024:2010 Tests completed : 29 April 2017 Result of Testing : The EUT is in Compliance with EN 55032:2015 and EN 55024:2010 EMC Test Engineer : Dennis King Report written by : Dennis King EMI Test Lab Report date : 22 May 2017 These test results relate only to the specific unit that was tested. A periodic production audit to verify continued compliance is recommended. Page 2 of 51

3 Table of Contents 1. General Test Information....page Applied Standards 1.2. Detailed description of test configuration, input and output ports Description of test configuration Description of input and output ports Operating mode(s) 2. Emissions..page AC Mains conducted emissions 2.2. Enclosure radiated emissions ,000 MHz GHz 2.3. Harmonic current emissions 2.4. Voltage fluctuations and flicker 3. Immunity.....page Performance criteria 3.2. Enclosure tests Radio-frequency electromagnetic fields Electrostatic discharge RF common mode on signal and telecom ports Fast transients on signal and telecom ports 3.3. AC power port tests Radio-frequency immunity, common mode Surges Fast Transients, common mode Voltage Dips and Interruptions Power Frequency Magnetic Fields 4. Modifications During Testing..page Test equipment..page Measurement Uncertainty......page Test Plan.....page Conclusion....page 51 Page 3 of 51

4 1 General 1.1 Applied Standards Analog Devices EVAL-ADICUP3029 baseboard was evaluated for emissions using EN 55032:2015 and for immunity using EN 55024:2010. EN 55032:2015 is the European Union s version of the international CISPR standard CISPR 32 Edition 2.0 b:2015. EN 55024:2010+A1:2015 is the European Union s version of the international CISPR standard CISPR 24: Detailed description of the test configuration, input and output ports Test Configuration Definition: The EVAL-ADICUP3029 Baseboard is being tested per the Test Instructions provided by Analog Devices. The EUT (Equipment Under Test) is being tested in two configurations. A third configuration Gas Sensor was tested but failed EN , Electrical Fast Transients. This configuration was taken out of the testing per Analog. The first configuration tested the Baseboard by blinking two led s, red and green. The Baseboard is connected to the laptop through a usb cable that is supplied with the EUT. The second configuration tested is called PMOD operating on battery power, with Serial Terminal Output. See the operating instructions at the end of this report for details Page 4 of 51

5 CE Test Software Software was supplied by Analog to run both configurations. 1. the blinky.hex file 2. gassensor_ble.hex file this is the configuration that was removed from the testing 3. TempReadback.HEX file Production level cables and hardware were used for all testing. A usb cable was used from the laptop to the baseboard, part of the kit. What's Included in the Kit: Baseboard USB cable (Type A to Micro-B) Page 5 of 51

6 About the EVAL-ADICUP3029 Page 6 of 51

7 1.2.1 Description of test configuration EUT : Design Evaluation Board Manufacturer : Analog Devices Part Number : EVAL-ADICUP3029 Serial Number : PMOD Part Number : EVAL-ADT4720-PMDZ RevA Test Voltage (host laptop) : 230 VAC 50 Hz Note: the baseboard gets its power through the connected usb cable, no other power connected to the board for the two configurations that were tested Description of tested input and output ports Note: all cables are less than 3 meters in length. USB cable is from ShenZhen G-Rich Technology co.,ltd. Part Number ref: GLJ-C Number of cable type Type of Cable From To Shielded? Remarks - length 1 USB Type A to Micro-B Laptop USB port Baseboard yes 4 ft. Ferrite on the Micro-B end Operation modes 2. The first configuration tested the Baseboard by blinking two led s, red and green. The Baseboard is connected to the laptop through a usb cable that is supplied with the EUT. 3. The second configuration tested is called PMOD operating on battery power, with Serial Terminal Output. This mode sends a temperature to be displayed on the laptop. Page 7 of 51

8 Analog Devices EVAL-ADICUP3029 Click here for more information Page 8 of 51

9 2 Emissions The EUT has been tested to determine conformity with the relevant emissions parts of the EN 55032:2015 standard. AC Power line conducted and radiated field strength measurements concerning the emission of radiated and conducted electromagnetic disturbances were not made since both configurations tested receive power though the usb cable connected to the laptop. Page 9 of 51

10 2.1 AC Mains Power Input Ports The disturbance voltage emissions levels at the AC mains power port of the EUT were measured in conformity with and according to the criteria as stated below. Basic standard : CISPR 32:2015 Test setup : EN 55032:2015 Frequency range 1 : MHz Limit : 79.0 dbuv quasi peak, 66 dbuv average Frequency range 2 : MHz Limit : 73 dbuv quasi peak, 60 dbuv average Results of the measurements concerning the emissions of voltage levels at the AC mains input port of the EUT. Not applicable Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: The test configurations get power through the usb cable, no power supply. Page 10 of 51

11 2.2 Enclosure ,000 MHz The radiated field strength levels (electric component) have been measured in conformity with and according to the criteria as stated below. Basic standard : CISPR 32:2015 Test setup : EN 55032:2015 Limit distance : 3 meters Frequency range 1 : MHz Limits : 50 dbuv/m Frequency range 2 : 230 1,000 MHz Limits : 57 dbuv/m Results of the measurements concerning radiated electromagnetic fields (electric component) emitted by the EUT, enclosure, as a tested system PASS Class A Name of Test Engineer: Dennis King Signature: Date: April 2017 Remarks: Radiated Emission Summary LF : 30MHz-1GHz (3 meter test distance) Both configurations pass. Page 11 of 51

12 Peak data pre-scan the quasi peak limit is shown in red See the next chart for final quasi peak data to compare against the quasi peak limit Page 12 of 51

13 Frequency(MHz) Horizontal Quasi-Peak dbuv/m Vertical Quasi-Peak dbuv/m Delta from the Limit Horiz Delta from Limit Vertical Page 13 of 51

14 Peak data pre-scan the quasi peak limit is shown in red See the next chart for final quasi peak data to compare against the quasi peak limit Page 14 of 51

15 EMI Test Lab 1822 Skyway Drive, Unit J, Longmont Co Dennis King Cell Frequency F.S. EUT Limit Azimuth Height Antenna Polarization (MHz) (dbuv/m) (dbuv/m) Degrees Meters H or V Margin V V V V H H H H H H Page 15 of 51

16 GHz The radiated field strength levels (electric component) have been measured in conformity with and according to the criteria as stated below. Basic standard : CISPR 32:2015 Test setup : EN 55032:2015 Limit distance : 3 meters Frequency range 1 : 1-3 GHz Limits : Average 50 dbuv/m, Peak 70 dbuv/m Frequency range 2 : 3-6 GHz Limits : Average 54 dbuv/m, Peak 74 dbuv/m Results of the measurements concerning radiated electromagnetic fields (electric component) emitted by the EUT, enclosure, as a tested system N/A Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: Radiated Emission Summary HF : 1GHz-6GHz (3 meter test distance) No operating frequencies above 108 MHz. Page 16 of 51

17 Radiated Emissions Setup Picture Page 17 of 51

18 2.3 Harmonic current emissions The emissions of harmonic currents at the AC mains connection terminals of the EUT were measured in conformance with and according to the criteria as stated below. Basic standard : EN Test setup : EN Frequency range : 100 Hz 2000 Hz Results of the measurements concerning the emission of harmonic currents at the AC mains connection terminals of the EUT Not applicable no power supply Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: The test configurations get power through the usb cable, no power supply. Page 18 of 51

19 2.4 Voltage fluctuations and flicker Voltage fluctuations and flicker at the AC mains connection terminals of the EUT were measured in conformance with and according to the criteria as stated below. Basic standard : EN Test setup : EN Results of the measurements concerning voltage fluctuations and flicker at the AC mains connection terminals of the EUT Not applicable Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: The test configurations get power through the usb cable, no power supply. Page 19 of 51

20 3 Immunity The EUT has been tested in conformity with parts of the standard EN 55024:2010 (immunity) concerning susceptibility and transient, conducted and radiated disturbances including electrostatic discharges. 3.1 Performance criteria The general principles (performance criteria) for the evaluation of the immunity test results are given below. The details are in EN 55024:2010 Performance Criterion A: The apparatus shall continue to operate as intended during the test. No degradation of performance or loss of function is allowed below a performance level (or permissible loss of performance) specified by the manufacturer, when the apparatus is used as intended. Performance Criterion B: The apparatus shall continue to operate as intended after the test. No degradation of performance or loss of function is allowed below a performance level (or permissible loss of function) specified by the manufacturer, when the apparatus is used as intended. During the test, degradation of performance is allowed, however, no change of actual operating state or stored data is allowed. Performance Criterion C: Temporary loss of function is allowed, provided the function is self-recoverable or can be restored by the operation of the controls, or by any operation specified in the instructions for use. Page 20 of 51

21 3.2 Enclosure Port Radio-frequency electromagnetic field. Amplitude modulated. The susceptibility of the EUT to radio-frequency electromagnetic fields has been tested in conformity with and according to the criteria as stated below. Basic standard : EN 55024:2010 Test setup : EN Frequency range : 80 MHz to 1000 MHz Field strength level : 3 V/m (selected w/o modulation, applied w/mod.) Modulation : 1 khz AM modulation, 80% depth Performance Criteria A : The unit must continue to operate as intended without loss of data or function. Results of the measurements concerning the susceptibility of the EUT to radiofrequency PASS Criterion A electromagnetic fields Name of Test Engineer: Dennis King Signature: Date: 29 April 2017 Radiated Immunity Summary: Configuration : The Gas Sensor configuration was tested as a worst case configuration before it was determined that it failed EFT. PASS 3 V/Meter USB cable is from ShenZhen G-Rich Technology co.,ltd. Part Number ref: GLJ-C Page 21 of 51

22 Radiated immunity test setup 80-1,000 MHz, 3 V/m The unit continued to run during and after the Immunity testing Passing Criteria A. All 4 sides, Vertical and Horizontal were checked at 3V/M No errors were detected Page 22 of 51

23 3.2.2 Electrostatic discharge The susceptibility of the EUT to electrostatic discharge was not tested. See notes below. Basic standard : EN 55024:2010 Test setup : EN Test levels : +- 4kV and +- 8 kv air discharge +- 2kV and +- 4 kv contact discharge +- 2kV and +- 4 kv horizontal and vertical planes Performance criteria : B Results of the test concerning the susceptibility of the EUT to electrostatic discharges (enclosure port) Not tested Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: Due to the open nature of the circuit board, ESD testing is not applicable to this product. Advice will be given to the Users to exercise proper ESD precautions when handling the circuit board. Page 23 of 51

24 Signal ports including telecommunication ports Radio-frequency (common mode). Amplitude modulated The susceptibility of the EUT to radio-frequency (common mode, amplitude modulated) signals to be tested in conformity with and according to the criteria as stated below Basic Standard : EN 55024:2010 Test setup : EN Frequency range : MHz Test level : 3 Vrms Modulation : 1 khz AM to a depth of 80% Source impedance : 150 Ohms Performance criteria : Criteria A Note: Conducted only on ports interfacing with cables whose total length, according to the manufacturer s functional specification, may exceed 3 meters. Results of the test concerning the susceptibility of the EUT to radio-frequency signals (common mode, AM modulated applied to signal and telecom ports) Name of Test Engineer: N/A no cables 3 meters or longer Dennis King Signature: Date: 22 May2017 Remarks: There are no cables 3 meters or longer connected to the EUT. Page 24 of 51

25 3.2.4 Fast Transients The susceptibility of the EUT to fast transients has been tested in conformity with and according to the criteria as stated below. Basic standard : EN 55024:2010 Test setup : EN Test level : KV Tr/Th : 5/50 nsec Repetition frequency : 5 khz Performance criteria : Criteria B Note: Conducted only on ports interfacing with cables whose total length, according to the manufacturer s functional specification, may exceed 3 meters. Results of the test concerning the susceptibility of the EUT to fast transients N/A no cables 3 meters or longer Name of Test Engineer: Dennis King Signature: Remarks: Date: 22 May 2017 Page 25 of 51

26 3.3 AC input and AC output power ports Radio-frequency (common mode, amplitude modulated) The susceptibility of the EUT to radio-frequency signals (common mode, amplitude modulated, has been tested in conformity with and according to the criteria as stated below. Basic standard : EN 55024:2010 Test setup : EN Frequency range : MHz Test level : 3 Vrms Source impedance : 150 Ohms Performance criteria : Criteria A Results of the test concerning the susceptibility of the EUT to radiofrequency signals (common mode, amplitude modulated) AC input and AC output power ports PASS per Dell Name of Test Engineer: Dennis King Signature: Date: 6 January 2015 Remarks: Configuration : The EUT has no AC connection, it gets power through the usb cable. The Dell host laptop has been tested and passes. PASS 3 V/Meter per Dell Page 26 of 51

27 3.3.2 Surges The susceptibility of the EUT to surges has been tested in conformity with and according to the criteria as stated below Basic Standard : EN 55024:2010 Test setup : EN Test level 1 : kv, kv Differential Mode Test level 2 : +- 2 kv common Mode Tr/Th : 1.2/50(8/20) micro Seconds Number of pulses Per phase angle/voltage : 5 Performance criteria : Criteria B Note : Applicable only to input AC ports Results of the test concerning the susceptibility of the EUT to surges (AC input and AC output power ports PASS per Dell Name of Test Engineer: Dennis King Signature: Date: 22 May2017 Remarks: Configuration : The EUT has no AC connection, it gets power through the usb cable. The Dell host laptop has been tested and passes. Page 27 of 51

28 3.2.4 Fast Transients The susceptibility of the EUT to fast transients (common mode) has been tested in conformity with and according to the criteria as stated below. Basic standard : EN 55024:2010 Test setup : EN Test level : +- 1 KV Tr/Th : 5/50 nsec Repetition frequency : 5 khz Performance criteria : Criteria B Note : Conducted on the AC input. Results of the test concerning the susceptibility of the EUT to fast transients (common mode, AC input and AC output ports) See remarks Name of Test Engineer: Dennis King Signature: Date: 29 April 2017 Remarks: Configuration : The power supply used for the Gas Sensor configuration was tested and failed. The EUT would act like it was being unplugged from usb and plugged back in. Another CE marked power supply was used and showed the same result. Analog decided to remove the Gas Sensor configuration from the testing. Page 28 of 51

29 3.3.4 Voltage Dips and Interruptions The susceptibility of the EUT to voltage dips and interruptions has been tested in conformity with and according to the criteria as stated below. Basic Standard : EN 55024:2010 Test setup : EN Test level (a) : Line at 0% of nominal for 0.5 cycles Test level (b) : Line at 40% of nominal for 5 cycles Test level (c) : Line at 70% of nominal for 25 cycles Test level (d) : Line at 0% of nominal for 250 cycles Results of the test concerning the susceptibility of the EUT to voltage dips and interruptions AC input and AC output ports PASS per Dell Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: Configuration : The EUT has no AC connection, it gets power through the usb cable. The Dell host laptop has been tested and passes. Page 29 of 51

30 3.3.5 Power Frequency Magnetic Fields The susceptibility of the EUT to power frequency magnetic fields has been tested in conformity with and according to the criteria as stated below. Basic Standard : EN 55024:2010 Test setup : EN Test level : 1 Amp per meter, X,Y and Z axis Results of the test concerning the susceptibility of the EUT to Not Applicable Name of Test Engineer: Dennis King Signature: Date: 22 May 2017 Remarks: There are no magnetically sensitive components in this product. Page 30 of 51

31 4.0 Modifications No modifications were made to the EUT during the testing. 5.0 Test equipment Table of Test Equipment Equipment Description and Test Model number HP Spectrum Analyzer HP Quasi-Peak Adapter Com-Power transient Limiter Serial number Next cal due Used for Radiated and Conducted Emissions 8566B 2607A June 2017 Used for Radiated and 85650A 8574A June 2017 Conducted Emissions Conducted Emissions HZ June 2017 RF Bay Pre-Amp Radiated emissions 100kHz to 10 GHz GTEM Radiated Emissions and Radiated Immunity LPA Dec April 2018 Field Uniformity Cal per IEC HP Signal Generator Radiated Immunity 8657A STD May 2018 HP Synthesized Sweep Generator GHz Radiated Immunity 1 GHz to 2.5 GHz 83752B May 2018 Amplifier Research Radiated Immunity 10S1G May 2018 Page 31 of 51

32 GHz Amp 1 GHz to 2.5 GHz Kalmus Power Amplifier Amplifier Research E- Field Probe Radiated Immunity 747LC-CE May kHz 1 GHz Radiated Immunity FP May 2018 Com-Power LISN Conducted emissions LI May 2018 Com-Power LISN Conducted emissions LI May 2018 California Instruments 1000 VA Power Source Emissions and Immunity - used as a 100/120/230/240-VAC 50/60 Hz AC source 1001WP L June 2017 EMI Labs CDN Conducted Immunity EMICDN Dec 2017 Schaffner ESD Gun Electro Static Discharge NSG Dec 2017 KeyTek ECAT Fast transients / Burst E June 2017 FCC Inc. RF Current Probe Monitor Conducted Immunity signal F Dec 2017 EMI Labs Mag Loop Magnetic Loop Antenna Mag Dec 2017 Thermo Keytek CE Master Surge/ AC Dips and Interrupts CE Master Dec 2017 All equipment used for testing has been calibrated or verified for cal using NIST traceable standards. Each piece of test equipment has a cal verification procedure that is conducted before and after each test. Page 32 of 51

33 6.0 Measurement Uncertainty Radiated Emissions Table of Uncertainty Calculation Contribution Designation Probability Equipment Under Test Uncertainties Measuring Receiver Amplitude Accuracy GTEM Uniformity Secondary Field Components U EUT U RXaccuracy U Uniformity U Secondary Distribution rectangular rectangular k 3 3 Uncertainty (db) Note 1 ± 0.9 ± 4.0 Excluded by Test Method Mismatch Uncertainty-GTEM to Pre- Amplifier Mismatch Uncertainty-Pre-Amplifier to Spectrum Analyzer System Sensitivity Error U Mismatch U U U-shaped Page 33 of and and U-shaped Mismatch 2 rectangular Sensitivity 3 GTEM Electric-Field Frequency Response rectangular U E Field 3 ± 1.6 Ambient Signal Uncertainty Not Significant U Abient GTEM to OATS Correlation rectangular ±1.2 U 3 Corr Septum Height Variation normal and - U Septum 0.82 Coaxial Cable Temperature Variations Not Significant U CableTemperature Coaxial Cable Calibration rectangular ±0.05 U 3 CableCalibration Pre-amplifier Calibration Uncertainty rectangular U Pr e Amp 3 ±0.05 Combined Uncertainty(dB) Positive Terms 2.77 Combined Uncertainty(dB) Negative Terms Expanded Uncertainty Positive Terms Normal Expanded Uncertainty Negative Terms Normal

34 Typical Measurement Uncertainty for the following Tests: The estimated combined standard uncertainty for ESD testing, EN is ± 4% The estimated combined standard uncertainty for Radiated Immunity, EN is ± 2.7dB The estimated combined standard uncertainty for EFT/Burst, EN is ± 5.8% The estimated combined standard uncertainty for Surge, EN is ± 8% The estimated combined standard uncertainty for Conducted Immunity, EN is ± 1.5 db The estimated combined standard uncertainty for Magnetic Fields, EN is ± 0.6% The estimated combined standard uncertainty for Voltage Dips and Interrupts, EN is ± 4.3% The estimated combined standard uncertainty for Conducted Emissions, CISPR 32 is ± 1.2dB The estimated combined standard uncertainty for Harmonic current and flicker is ± 11.6% Page 34 of 51

35 7.0 Test Plan Objective: The EVAL-ADICUP3029 is to be tested for CE Mark Compliance and shall pass Class A Radiated and Conducted Emissions. The Kit shall also pass all immunity tests that apply. ESD RF Immunity EFT/Burst Surge Conducted Immunity AC Dips and Interrupts Power Frequency Magnetic Field no magnetically sensitive parts Reliance upon CE MARK Compliance of the power supply shall be utilized for the power supply tests, as applicable, some re-testing is required due to system level testing. CE Class A Emissions Test: Radiated Emissions Frequency Range <30MHz-1GHz > (3 meter test distance) o Class B Spec: EN 55032:2015 o Test Method: CISPR 32:2015 Radiated Emissions Frequency Range <1GHz-6GHz > (3 meter test distance) o Class A Spec: EN 55032:2015 o Test Method: CISPR 32:2015 Conducted Emissions Frequency Range <150kHz-30MHz > Hot line & Neutral line, Peak and Quasi-Peak measurements o Class A Spec: EN 55032:2015 o Test Method: CISPR 32:2015 Page 35 of 51

36 CE Immunity Tests: Radiated Immunity at 3V/m EN Sides Vertical and 4 Sides Horizontal polarization (directional antenna orientation) Frequency Range <80MHz-1GHz w/ 1KHz 80% AM modulation> o Spec: EN 55024:2010 o Test Method: EN Conducted Immunity at 3 Vrms EN Frequency Range < MHz w/ 1KHz 80% AM modulation> o Spec: EN 55024:2010 o Test Method: EN EN Electro Static Discharge EN EFT / Burst EN Surge EN Mag Fields EN AC Dips and Interrupts Test Configuration Definition: See test instructions. Page 36 of 51

37 Test Instructions Equipment Needed for Demos Testing the EVAL - ADICUP3029 Board 1. EVAL-ADICUP3029 Board 2. EVAL-CN0357-ARDZ Gas Sensor Board 3. EVAL-ADT4720-PMDZ Pmod board 4. Micro USB to USB Cable 5. Two(2) triple A (AAA) batteries 6. PC or Laptop with Putty installed on it a. (choose the download for your operating system) Case 1: Standalone Mode 1. Make sure the UART switch (S2) on the EVAL-ADICUP3029, is in the USB position. 2. Make sure the POWER switch (S5) on the EVAL-ADICUP3029, is in the Wall/USB position. 3. Plug in the micro USB cable into the USB connector (P10) on the EVAL-ADICUP Plug the other end into the USB port of your PC a. Make sure you allow time for the device drivers to install on your PC (this will only happen once) Page 37 of 51

38 5. Open up Windows Explorer and find/wait for the drive labeled DAPLINK to appear. 6. Click and drag the blinky.hex file into the DAPLINK Drive a. Or you could also copy and paste the file 7. Wait for the file to finish copying over a. The Windows explorer window will automatically close on your PC and the LED (DS2) will stop blinking. 8. Press the 3029_RESET button (S1) of the EVAL-ADICUP3029, to reset the board and start the program. 9. Make sure to see that the Red and Green LEDs are flashing. Page 38 of 51

39 Page 39 of 51

40 Case 2: Shield and Serial Terminal Demo 1. Make sure the UART switch (S2) on the EVAL-ADICUP3029, is in the USB position. 2. Make sure the POWER switch (S5) on the EVAL-ADICUP3029, is in the Wall/USB position. 3. Plug in the micro USB cable into the USB connector (P10) on the EVAL-ADICUP Plug the other end into the USB port of your PC a. Make sure you allow time for the device drivers to install on your PC (this will only happen once) Page 40 of 51

41 5. Open up Windows Explorer and find/wait for the drive labeled DAPLINK to appear. 6. Click and drag the gassensor_ble.hex file into the DAPLINK Drive a. Or you could also copy and paste the file 7. Wait for the file to finish copying over a. The Windows explorer window will automatically close on your PC 8. Remove the micro USB cable from the EVAL-ADICUP3029 (P10) 9. Plug in the EVAL-CN0357-ARDZ on top of the EVAL-ADICUP Plug in the 12V power supply needed for the EVAL-CN0357-ARDZ, into power jack (P2) on the EVAL-ADICUP Plug in the micro USB cable to P10 of the EVAL-ADICUP3029. Page 41 of 51

42 12. Go to the start menu and type in putty. Look for the putty.exe program and click it 13. Go back to your start menu, and type in device manager and click on it. a. Say yes to accept the user control 14. Find Ports and expand the tree, and look for the USB Serial Port (COMx) a. Remember the COMx number for the next step Page 42 of 51

43 15. Configure Putty, by clicking on the Serial radio button, Typing in the COMx port from step 11, and type in for the Speed. Page 43 of 51

44 16. Click Ok. Page 44 of 51

45 17. If you see the above data, than everything worked successfully (exact numbers not important) Case 3: PMOD operating on battery power, with Serial Terminal Output 1. Make sure the UART switch (S2) on the EVAL-ADICUP3029, is in the USB position. 2. Make sure the POWER switch (S5) on the EVAL-ADICUP3029, is in the Wall/USB position. 3. Place two(2) triple a (AAA) batteries into the battery holder (TB1) 4. Plug in the EVAL-ADT7420-PMDZ into P9 of the EVAL-ADICUP Plug in the micro USB cable into the USB connector (P10) on the EVAL-ADICUP Plug the other end into the USB port of your PC a. Make sure you allow time for the device drivers to install on your PC (this will only happen once) Page 45 of 51

46 7. Open up Windows Explorer and find/wait for the drive labeled DAPLINK to appear. 8. Click and drag the TempReadback.HEX file into the DAPLINK Drive a. Or you could also copy and paste the file 9. Wait for the file to finish copying over a. The Windows explorer window will automatically close on your PC 10. Press the 3029_RESET button (S1) of the EVAL-ADICUP3029, to reset the board and start the program. 11. Move the POWER switch (S5) on the EVAL-ADICUP3029, to the BATT position. Page 46 of 51

47 12. Go to the start menu and type in putty. Look for the putty.exe program and click it 13. Go back to your start menu, and type in device manager and click on it. a. Say yes to accept the user control 14. Find Ports and expand the tree, and look for the USB Serial Port (COMx) a. Remember the COMx number for the next step Page 47 of 51

48 15. Configure Putty, by clicking on the Serial radio button, Typing in the COMx port from step 11, and type in 9600 for the Speed. 16. Click Ok Page 48 of 51

49 17. Type in the word help into the putty program prompt. You should see a help menu display. Page 49 of 51

50 18. If you see the above screen, than everything worked successfully.(exact data not important) Page 50 of 51

51 8.0 Conclusion Analog Devices EVAL-ADICUP3029 Baseboard with PMOD EVAL-ADT4720-PMDZ complies with; the emissions standard EN 55032:2015 and the immunity standard EN 55024:2010 in the configuration and operating mode as stated in this test report. End of Report Page 51 of 51