This report summarizes the current state of all ground station verification activities (2022/3/19). Detailed Excel sheet is here.
Verified Activities
V-GST-0002: Look at the team's register and the playbook work packages list only students leading all tasks.
Evidence: Playbook registry - all led by undergraduates and graduates
V-GST-0003: Run STK simulations for Iris with the ground station located at UofM to confirm that the ISS orbit can be used for communications
Evidence: STK Simulation for Iris in ISS Orbit with all passes communicates with the ground station located at U of M from 9/1/20 - 9/1/21, through column A to J, column H to G are the daily communication data:
V-GST-0004: Review the memorandum of understanding (MOU) between StarLab and UMARS to confirm that the ground station is available to us for sufficient time starting at least 30 minutes after separation.
Evidence: UM ground station is lent and available to Iris mission from 12th May 2020 to 31st December 2023 (after launch). There is no other mission operating at UM ground station in this effective duration. Signed MOU document by Dr. Kinsner:
https://drive.google.com/file/d/1Y0d1oaOV209jW8Ptc7dF5iEYOrLUbnS1/view?usp=sharing
V-GST-0007: Review ICD documentation and commands list to confirm that the design allows recommencement of RF emissions to occur after a planned cessation
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
In row 29, "COMMS-CMD-01" is for a planned cessation; after the cessation, Recommencement of RF emission is planned (row 33).
Details of how cessation will occur, IARU license, section 5b: https://docs.google.com/document/d/1mYYj60q2OGuMxI6XWrhpfids2EW-kBl7/edit?usp=sharing&ouid=109885286405005636398&rtpof=true&sd=true
V-GST-0009: Review ground station software/code to make sure that no command from the ground station is capable of harming or destroying the CubeSat.
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Commissioning phase command list: https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
V-GST-0010: Review the ISED requirements and documents, ITU regulations, (https://www.ic.gc.ca/eic/site/smt-gst.nsf/eng/sf01385.html#sC) and the ground station characteristics to verify compliance.
Evidence: All ITU regulations applicable to Iris with compliance statements listed in: https://docs.google.com/document/d/13Ok4ftYB-wLszAqLtaI0boTb99W6GNod/edit?usp=sharing&ouid=109885286405005636398&rtpof=true&sd=true
All ITU regulations are in:https://drive.google.com/drive/folders/1Avo3zGaTpLXpUciMIgt2JA1XjhGsEylc?usp=sharing
V-GST-0011: Verify that all imported products used at the ground station follow import restrictions.
Evidence: There is no hardware purchased/imported for the ground station subsystem for the Iris mission.
V-GST-0012: Review ICD documentation and ITU regulations to confirm that the design allows cessation to occur when required by ITU regulations
Evidence: ICD documentation of command list, cessation command is in row 29:
https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Details of how cessation will occur, IARU license, section 5b:
ITU regulation regarding cessation of radio emissions, see section I- 22.1:
https://life.itu.int/radioclub/rr/art22.pdf
V-GST-0014: Review documentation to check that the ground station has a proper and legal license. The MOU has Dr. Kinsner in it and he has a permanent license to operate the UofM ground station
Evidence: Signed MOU document by Dr. Kinsner:
https://drive.google.com/file/d/1Y0d1oaOV209jW8Ptc7dF5iEYOrLUbnS1/view?usp=sharing
A valid amateur radio license of UM ground station can be checked:
V-GST-0015: Review documentation to see that the ground station operators have an amateur radio basic license and an advanced license for operating the remote connections.
Evidence: License check web: https://apc-cap.ic.gc.ca/pls/apc_anon/query_amat_cs$callsign.QueryViewByKey?P_CALLSIGN=VA4YSH&Z_CHK=61632
V-GST-0017: Verify that the ground station is compliant with the requirements for an amateur radio station by reviewing all requirements.
Evidence: University of Manitoba Ground Station (Also called UMARS, University of Manitoba Amateur Radio Society) is registered and licensed as an amateur radio station under Dr. Kinsner:
V-GST-0018: Verify that the ground station is compliant with the requirements for an amateur radio station by reviewing all requirements after upgrades to the ground station
Evidence: Repairment and upgrades at the ground station:
1. replaced the antenna rotor motor
2. replaced the 1200 bps modem to a 9600 bps modem (Raspberry pi)
No specific amateur radio station regulation matches with these two actions, amateur radio license is still valid after the repair and upgrades.
University of Manitoba Ground Station (Also called UMARS, University of Manitoba Amateur Radio Society) is registered and licensed as an amateur radio station under Dr. Kinsner: https://apc-cap.ic.gc.ca/pls/apc_anon/query_amat_cs$callsign.QueryViewByKey?P_CALLSIGN=VE4UMR&Z_CHK=60100
V-GST-0021: Go through all the ground station commands to verify that there is no command capable of destroying the CubeSat.
Evidence: There are no commands in the list capable of destroying the CubeSat. The commands list is in this link:
https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
V-GST-0022: Review documentation to verify that the Comms and ground station design only use UHF to receive telemetry from the CubeSat
Evidence: The designed parameters for the ground station is in Wiki, see link budget section. UHF range specified by CSA is from 430-438MHz: https://sites.google.com/site/manitobasat1/subsystems/ground-station
Link budget analysis was performed based on the designed UHF, see downlink and uplink sheets, row 1: https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0024: Perform a failure mode analysis to list all ways in which the CubeSat can be destroyed and verify by documentation that the ground station is not capable of sending any command that could cause any of the ways listed.
Evidence: Failure mode analysis with risk identification, quantitative risk assessment and risk response plan is in Wiki - Ground Station: https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0042: Look at the GS design page to confirm that a place to store and organize telemetry data accessible to all is mentioned.
Evidence: Design page for the ground station, check "Detailed Communication Design at Ground Station", all downlinked data from Iris will be stored in the STARLab computer:
https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0051: Review the ground station design to confirm that transmission occurs with a minimum bandwidth of 3.0 kHz.
Evidence: The ground station transmission bandwidth is 15kHz same with Iris comms subsystem receiver bandwidth. Ground station link budget parameters design page is in Wiki:
https://sites.google.com/site/manitobasat1/subsystems/ground-station
Link budget table (See uplink budget sheet, row 33): https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0052: Review the ground station design to confirm that transmission occurs with a maximum bandwidth of 12.0 MHz.
Evidence: The ground station transmission bandwidth is 15kHz same with Iris comms subsystem receiver bandwidth. Ground station link budget parameters design page is in Wiki:
https://sites.google.com/site/manitobasat1/subsystems/ground-station
Link budget table (See uplink budget sheet, row 33): https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0053: Review link budget from design page to confirm that the baud rate is 9600 bps
Evidence: Baud rate can be checked on ground station wiki page, see link budget:https://sites.google.com/site/manitobasat1/subsystems/ground-station
Link budget table (See uplink and downlink budget sheets, check data rate, row 33): https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0061: Look at the RF parts list to verify that the UHF antenna is the M2 Antenna Systems Model No: 436CP42UG
Evidence: see row 7 in parts list: https://docs.google.com/spreadsheets/d/1Ct96QSCGNg5GXCXvWgE3v_gEbCsJgZzx/edit?usp=sharing&ouid=109885286405005636398&rtpof=true&sd=true
V-GST-0062: Inspect the ground station antenna to confirm that the UHF antenna model is 436CP42UG
Evidence: Antenna datasheet: https://drive.google.com/file/d/1tL8Td22-PKpCx-h6soXT247kcqCdso8V/view?pli=1
Antenna photo taken for UM ground station is in Wiki (figure 9):
https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0083: Verify by looking at the datasheets of the chosen transmitter that the operating bandwidth does not exceed the limit range of 3kHz to 12MHz.
Evidence: Transmitter used in the ground station is YAESU FT-847 by using FM mode (9600bps), max bandwidth is 16kHz. The datasheet is: https://www.universal-radio.com/catalog/hamhf/1467spec.html
Operating bandwidth of ground station 10kHz (receiving) and 15kHz(transmitting), check row 33 in downlink and uplink budget sheets:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0084: Perform analysis in the link budget to confirm that the maximum transmission bandwidth for the ground station does not exceed the maximum limit of 12 MHz.
Evidence: Receiving bandwidth of ground station is 10kHz, transmitting bandwidth is 15kHz, check row 33 in downlink and uplink budget sheets:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0090: Perform a data transmission test between the Gomspace transceiver and the ground station, verify that the data rate is 9600 bps.
Evidence: Transmission test parameter list (list 1 is the receiving parameters, list 5 is the transmitting parameters) see baud: https://drive.google.com/file/d/1mSzYSFf35-qZukl0Yu7Y77zBgUfO7PNV/view?usp=sharing
V-GST-0102: Review the commands list and the design page for the ground station to confirm that it has the capability to send commands and request data
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Commissioning phase command list: https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
how does the ground station uplink commands and downlink data is in "Architecture" and "Design" sections in wiki - ground station:
https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0105: Confirm through analysis that the ground station can receive a min of 1 image per week. Enough space to save the image is necessary.
Evidence: (need a discussion) Commissioning phase command list: https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
row 37, one image data needs 25hrs to send to the ground station. After analysis, it needs 381 passes to complete it which is almost 4months
V-GST-0120: Perform analysis of the link budget to see that the min. elevation angle of 20 degrees is feasible and data acquisition can take place at that angle.
Evidence: Analysis performed for data acquisition (spacecraft to ground station) is from row 5 to row 10 in downlink budget sheet in:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0140: Review the ground station design to confirm that transmission occurs with minimum uplink margin of 3 dB.
Evidence: The ground station transmission margin is 10.48dB, listed in downlink budget sheet, row 8, in:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0141: Review the data sheet for ground station antenna to confirm that minimum bandwidth of the antenna is 3kHz.
Evidence: Datasheet of the antenna is (see bandwidth, over 10MHz):
https://www.dxengineering.com/parts/msq-436cp42ug
V-GST-0150: Verify using STK simulations that the ground station can contact the CubeSat at least once a day.
Evidence: STK simulation from 9/1/20 - 9/1/21, # of contacts between Iris and ground station is in Colum M (all >= 2 contacts per day):
V-GST-0160: Review the ground station design datasheets and hardware to confirm that the ground station is capable of frequency shift key (FSK) modulation and demodulation
Evidence: The current modem used in ground station is made from a Raspberry pi, which is open source equipment and is capable of supporting GMSK, FSK…etc., multiple modulations by changing its software settings. Modem photo: https://drive.google.com/file/d/14e8OMcdSlyOdPGzQFZjO-VXG1iWRRMju/view?usp=sharing
V-GST-0170: Perform link budget analyses to evaluate that the uplink transmissions have a minimum signal-to-noise power density of 50 dBHz
Evidence: The signal to noise power density for ground station is 65.3dBHz from analysis, check downlink budget sheet, row 32:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0180: Perform link budget analyses to evaluate that the transmissions have a maximum bit error rate of 10^-5
Evidence: The telemetry required bit error rate for ground station is 1E-5, check downlink budget sheet, row 36:
https://docs.google.com/spreadsheets/d/1befB1_x0NGUDufLeP-Q8AM-0S87x6tktke3rDF2EJ_c/edit?usp=sharing
V-GST-0190: Review of design to confirm ground station can downlink the data.
Evidence: Ground station design page is in Wiki, check "capabilities of the design": https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0191: Review operational plan to confirm that image will be sent at least once a week to the ground
Evidence: Operation plan is in wiki, check operation teams and plan: https://sites.google.com/site/manitobasat1/operations
V-GST-0210: Review documentation by looking at parts list and GS ICD that no systems/components subject to ITAR are procured.
Evidence: There are no systems/components are purchased for ground station.
V-GST-0211: Check that there is a test area for software in the cleanroom for the ground station
Evidence: Delete? ground station does not need a test area in the clean room.
V-GST-0300: Review of command list to ensure that there are commands that change the mode of operation as necessary
Evidence: Detumbling mode will be in the commissioning phase:https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
Operation modes change commands are in, check highlighted contents: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0302: Review the ground station command list to confirm that there is an incremental power mode transition command.
Evidence: Command list, check highlighted commands for Power subsystem, power mode transition is based on battery SoC and components accordingly: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0303: Review the ground station command list to confirm that there is a command to request 2 images when required
Evidence: Command list, check row 84: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0305: review the commands list and show that the commands include a unique identifier that would be recognized by the CubeSat when receiving commands from the ground station.
Evidence: Command list, see column 2: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0370: Review code at the ground station to show that the command to stop radio signals leads to resetting of a timer to prevent recommencement of the radio signal.
Evidence: Commands from ground station to comms, row 29, "COMMS-CMD-01" and "COMMS-CMD-02" command: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0380: Review the command list to check that there is a command to stop radio emissions to prevent the on-board transmitter from recommencing radio emission if the spacecraft undergoes automatic rebooting.
Evidence: Commands from ground station to comms, row 29, "COMMS-CMD-01" command: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
V-GST-0400: Review that the commands list doesn't have any command that would violate the Catastrophic Hazard requirements or would cause damage or harm to the CubeSat.
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Commissioning phase command list:
https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
V-GST-0402: review the code to confirm that there is no command detrimental to controlling or precluding a hazard on the CubeSat
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Commissioning phase command list:
https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
V-GST-0420: Review the command list to confirm that there is no command that would cause a single failure or single operator error that would lead to a non-disabling personnel injury or illness, loss of a major ISS element, loss of redundancy (i.e. with only a single hazard control remaining) for on-orbit life sustaining function, or loss of use of the Space Station Remote Manipulator System (SSRMS).
Evidence: Command list: https://docs.google.com/spreadsheets/d/1H8-9vDb7RWIPiG9K3tvDgeOLvxFWymXBuTdsaG49IDg/edit?usp=sharing
Commissioning phase command list:
https://docs.google.com/spreadsheets/d/1YoptZVLuwEheCxxuyHDZLKAaKw9MNnjtuKP6J07vF-Y/edit?usp=sharing
V-GST-0440: Use the the STARLab ground station to control the antenna tracking software (SAT-PC-32) installed in the UMARS computer to track the antenna position to demonstrate that it is possible to control the antenna remotely.
Evidence: The remote control is built up from TeamViwer, remote test results is: https://drive.google.com/file/d/1oXjCNuSKYCEusahLWteotGHguzs6BcuP/view?usp=sharing
V-GST-0441: Perform STK simulations to show that there is at least 1 pass throughout at least 1 yeat lifetime of the CubeSat everyday
Evidence: STK simulation from 9/1/20 - 9/1/21, # of passes of Iris is in Colum M (all >= 2 passes/contact # per day):
V-GST-0940: Perform a failure mode analysis to see how the commands in the two command process can impact the satellite and if they can cause two failures, two operator errors (or one of each), can cause a disabling or fatal personnel injury or loss of one of the following: loss of ISS, loss of a crew-carrying vehicle, or loss of major ground facility
Evidence: Failure mode analysis with risk identification, quantitative risk assessment and risk response plan in Wiki - Ground Station: https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-0941: Perform a failure mode analysis to analyze how all commands in the list can impact the satellite and if they can cause a single failure or single operator error that would lead to a non-disabling personnel injury or illness, loss of a major ISS element, loss of redundancy (i.e. with only a single hazard control remaining) for on-orbit life sustaining function, or loss of use of the Space Station Remote Manipulator System (SSRMS).
Evidence: Failure mode analysis with risk identification, quantitative risk assessment and risk response plan in Wiki - Ground Station: https://sites.google.com/site/manitobasat1/subsystems/ground-station
V-GST-2000: Perform the ground station Ping to ISS test to confirm that ISS orbit can be used for communications.
Evidence: Ground station Ping to ISS test was recorded in here - reached to ISS voicemail: https://drive.google.com/file/d/12-FQATiiGht3tPbjK7q25S7Ihce66BP3/view?usp=sharing
Partially Verified:
V-GST-0403: Review documentation to check that the ground station has a proper and legal license. The MOU has Dr. Kinsner in it and he has a permanent license to operate the UofM ground station
Evidence: Signed MOU document by Dr. Kinsner:
https://drive.google.com/file/d/1Y0d1oaOV209jW8Ptc7dF5iEYOrLUbnS1/view?usp=sharing
Valid license of UM ground station can be checked:
University of Manitoba Ground Station (Also called UMARS, University of Manitoba Amateur Radio Society) is registered and licensed as an amateur radio station under Dr. Kinsner:
Remaining licenses pending to be approved for ground station are: IARU, CPC-2-6-02, CPC-2-01
Not Verified
V-GST-0001: Run the ground station to orbit satellite for at least 3 months. If the ground station is able to receive telemetry and send commands over this period, the test is passed.
V-GST-0005: Review ground station software code to confirm that there is a command to cease RF emissions when required.
V-GST-0006: Test serial communication recommencement of RF emissions with the ground station setup with the flatsat to verify that the communication can be controlled or stopped when required. Reset the timer and wait to see if recommencement is occurring. Demonstrating that recommencement occurs after a planned cessation when a command is sent to set the appropriate timers will be the pass/fail criterion.
V-GST-0013: Test serial communication cessation with the ground station with the Gomspace transceiver to verify that the communication can be controlled or stopped when required. Demonstrating that cessation stops when a command is sent to set the appropriate timers will be the pass/fail criterion.
V-GST-0023: Perform analysis with the simulated spacecraft to confirm that the ground station is capable of receiving and storing and processing required telemetry. Send simulated telemetry from the simulation model for transmission, and analyze received data on a computer to verify if processed telemetry has been obtained. In STK propagator simulations, use only UHF frequencies
V-GST-0040: Review documentation with list of unsafe weather conditions to operate a ground station and confirm that the present weather doesn't fall into any of the conditions mentioned.
V-GST-0041: Review that the operating weather conditions for the ground station are listed in the operating instructions document
V-GST-0050: Send simulated telemetry from the simulation spacecraft model over a simulated period of 5 days and analyze received data on a computer to verify if the telemetry is stored. Try and retrieve telemetry files for atleast 48 hours from current time.
V-GST-0073:Perform analysis in the link budget to confirm that the chosen transmitter allows us to operate with a minimum bandwidth of 3 kHz
V-GST-0097:Perform a data transmission test between ground station and the satellite after integration of the satellite by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0101:Test that the TLEs for a similar satellite are being downloaded regularly and automatically by SpaceTrack Retriever application and can be sent to the simulated CubeSat model.
V-GST-0103: Test and verify that if the ground station is able to send commands and request data with a simulated spacecraft model.
V-GST-0106: Review the ground station software to confirm that the ground station expects minimum of 1 image per week
V-GST-0110: Review the datasheet of the GS modem and the transceiver to verify that it is possible to receive 1 MB per day for the GS
V-GST-0130: Review the transceiver datasheet to confirm that transmission occurs with minimum downlink margin of 3 dB.
V-GST-0142: Inspect that Winnipeg weather is conducive to the functioning of the antenna at the ground station
V-GST-0201: Perform tests with the simulated spacecraft to confirm that the ground station is capable of receiving and storing and processing required telemetry. Send simulated telemetry from the simulation model for transmission, and analyze received data on a computer to verify if processed telemetry has been obtained.
V-GST-0202:Review the documentation of ground station converter software (converting received telemetry to easily readable form).
V-GST-0221: Test using dummy data packets to see if the code for the ground station software is able to handle the protocols properly
V-GST-0222: Perform a flatsat test using the flatsat packet data to verify that the protocol used for communication is being handled properly and is essentially AX.25
V-GST-0250:
Review the ground station GUI code to show that there is no operator input needed to continue normal operations.
V-GST-0251:
Test the ground station with the simulated CubeSat model to perform basic functions such as sending commands in a queue, identifying basic faults and initiating communication with the CubeSat when a pass occurs autonomously.
V-GST-0304: Review the software code to see if there is a way to request two images when required
V-GST-0306:Perform a flatsat test with dummy commands without the unique identifier from the ground station. The CubeSat shouldn't recognize them and shouldn't take any action based on these commands to pass the test.
V-GST-0381:Perform simulated automatic rebooting and send a command to set timers that prevent the on-board transmitter from recommencing radio emission.
V-GST-0390: Review the deliverables list to show that there is one for the processed data of the sun sensors to the York team in a format that is easily readable and the contact information for York team is available
V-GST-0391: Perform a test using the flatsat packet data and using the software package to process it to convert it to readable format. The test will be passed if the data is available in readable format at the end.
V-GST-0401: Perform test during simulated mission operations by using the ground station to command the CubeSat to enter idle, sun-pointing and science modes according to the concept of operations.
V-GST-0410: Review the ground station software to show that there is a two step command process shall have a two step command process such that no combination of two failures, two operator errors (or one of each), can cause a disabling or fatal personnel injury or loss of one of the following: loss of ISS, loss of a crew-carrying vehicle, or loss of major ground facility
V-GST-0450:Review ground station design that the transceiver and radio architecture for the ground station provides the capability for error checking.
V-GST-0451: Test using an ISS orbit educational satellite with the UHF antenna and equipment at the ground station to verify that it is possible to receive payload and telemetry data using UHF frequencies
V-GST-2001:Test that if the ground station is able to communicate with a CubeSat in the ISS orbit to receive coherent telemetry
V-GST-0452: Test the connected weather station of the ground station to verify if it is able to correctly obtain the weather conditions and make decisions to allow or disallow the operations of the GS.
V-GST-0200: Perform a data transmission test between ground station and the satellite during flatsat test by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0301: Review of design of the GS command list to ensure that software can interpret GS commands to change operational modes based on system and mission requirements and these commands are documented
V-GST-0800:
Perform a data transmission test between ground station and the satellite under the TVAC ambient conditions by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0801: Perform a data transmission test between ground station and the satellite during the cold plateau thermal vacuum test by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0802:Perform a data transmission test between ground station and the satellite during the hot plateau thermal vacuum test by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0804: Perform a data transmission test between ground station and the satellite during the thermal cycle vacuum test by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0805: Perform a data transmission test between ground station and the satellite during the post TVAC ambient test by using the HackRF SDR. Required data will be sent to the ground station from the satellite through the HackRF SDR.
V-GST-0809: Test that the TLEs for a similar satellite using ISS orbit are being downloaded regularly and automatically by the actual ground station antenna tracking software application and can be sent to the ground station computer located at STARLab. The ground station computer in the StarLab will be remotely connected to the UMARS computer.
V-GST-0900: Use the ground station to get telemetry from a similar satellite. Download the telemetry and assess its data size and look at the downlink capability of the transceiver and the GS modem to verify that it is possible to receive 1 MB per day for the GS
V-GST-0902: Use the ground station to get telemetry from a similar satellite. The antenna should be able to acquire data at a min elevation angle of 20 deg
V-GST-0905: Use the GS to acquire an ISS orbit satellite's telemetry and verify that the GS is able to perform frequency shift key modulation and demodulation. The data should be properly acquired and convertible to readable format
V-GST-0910: Use a service monitor to monitor the output performance of the ground station with dummy CSP packitized data input to confirm that the minimum signal-to noise power density is 50 dBHz.
V-GST-0920: Use a service monitor with various dbm output to compare the performances between the Gomspace radio and ground station with the same test input to confirm that the max bit error rate is 10 ^ -5
V-GST-0930: Get actual telemetry from an ISS orbit satellite, process it and provide the data in readable form to pass the test. This will verify that the system is capable of providing processed telemetry.
V-GST-0942: Download telemetry from an ISS satellite and run the algorithm to check for errors in incoming transmissions. This test should prove that the transceiver software has the capability of error tracking