During spacecraft-level environmental testing, after all instruments were integrated, the government assembled a data clerk team to support test data collection.

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Presentation transcript:

During spacecraft-level environmental testing, after all instruments were integrated, the government assembled a data clerk team to support test data collection for critical dynamics, electromagnetic interference (EMI), and thermal-vacuum events. During those test events, BATC test engineers performed spacecraft solid state recorder (SSR) dumps at an interval that coincided with once per orbit (102 minutes). The result was a single file up to 43 Gigabytes in size. Each file contained randomized Channel Access Data Units (CADUs) that were not Reed-Solomon error corrected. The data clerk retrieved these files from a BATC-provided read-only workstation, transferred, and processed the data with custom software on local government hardware to produce files of contiguous CCSDS packet streams by instrument. Portable disks were used to transfer raw and processed packet streams to on-site and off-site analysts, and to NASA headquarters where they were uploaded to CasaNOSA. Thermal data, spacecraft command message logs, and other ground support and auxiliary data and documentation were electronically pushed to CasaNOSA from the factory over the Internet. Second, in parallel to data distribution to the sensor science teams, pre-launch test data were transferred and ingested into the central NPP calibration and validation (cal/val) system, known as the Government Resource for Algorithm Verification, Independent Testing, and Evaluation (GRAVITE), where they will reside for the life of the mission. As a result, data and documentation are available for query, analysis, and download by the cal/val community via the command-line GRAVITE Transfer Protocol (GTP) tool or via the NOAA- collaborative website "CasaNOSA". Instrument and spacecraft test data, telemetry, and ground support equipment information were collected and organized with detailed test procedures, logs, analyses, characterizations, and reports. This 45 Terabyte archive will facilitate comparison of on-orbit NPP operating characteristics with that observed prior to launch. NPP spacecraft being lowered into the Brutus thermal-vacuum test chamber at the Ball Aerospace & Technologies Corp (BATC) facility in Boulder, CO The VIIRS contractor, Raytheon Space and Airborne Systems, El Segundo, CA, directed test data from the high-bay to a Raytheon owned and operated Linux cluster in near real-time. Raytheon provided the government with access to test data on this cluster via a read-only workstation. For security reasons, an air gap existed between this read- only workstation and government equipment. In place of the air gap, the government formed an on-site data clerk team who transferred test data to an on-site government data server via removable external hard disks. Raw sensor data, in Consultative Committee for Space Data Systems (CCSDS) packet format, were distributed to the analysis teams via one of three methods. 1.On-site sensor analysts had access to data over a secure virtual local area network (VLAN) and could commence their work immediately. 2.The data clerk populated portable USB disks with sensor data, and shipped them via overnight courier service to off-site analysts. 3.Data were also automatically transferred to NOAA headquarters via dedicated DS3 (Digital Signal 3) line. Once at NOAA headquarters, data were made available to analysts around the country via the CasaNOSA website, NOAAs test data repository serving NPP sensor scientists and cal/val teams. During thermal-vacuum, the data clerks transferred several gigabytes of data at thirty- minute intervals – 24/7 for 111 straight days. AMS 2012 Basic test information Binary test data files Instrument log As-run test procedure Shift report