Dr. James Carswell
Founder, President & Chief Technology Officer
Dr. James R. Carswell received the Ph.D. degree in Electrical Engineering from the University of Massachusetts-Amherst and the B.S.E.E degree from Tufts University. He is an adjunct professor at UMass. As co-founder and president of RSS, Dr. Carswell serves as the Company’s main technology visionary for providing hardware, digital processing and data management solutions for remote sensing applications. He has led the development of an FPGA-based digital receiver for the NASA High Altitude Imaging Wind and Rain Airborne Profiler (HIWRAP) that will be deployed on the NASA Global Hawk UAV. He designed the solid-state Ku/Ka-band transceiver for HIWRAP and lead the design and development of a similar transceiver in support of a ground validation Ku/Ka-band radar for the NASA GPM mission (D3R). Dr. Carswell has developed and implemented real-time inversion algorithms to derive the ocean surface wind field from measurements acquired with NOAA’s operational instrumentation and has developed real-time inversion algorithms for extracting precipitation rates and ABL winds. This work has been used to support NASA’s QuikSCAT mission. He has also led the development of an adaptable web server and processor to provide real-time and historical access to sensor data on the NOAA WP-3D aircraft and is very familiar with the aircraft and scientific data being collected by this platform. He was the principal investigator on a project with NOAA Aircraft Operations Center to develop the next generation main data system on the NOAA aircraft. This system is responsible for collecting, storing, processing and distributing all data collected on NOAA aircraft. Dr. Carswell has been designing, developing and deploying remote sensing instrumentation since 1992. His accomplishments prior to founding Remote Sensing Solutions include: leading the unmanned aerial vehicle (UAV) and hurricane remote sensing programs at the University of Massachusetts; developing the first solid-state airborne W-band cloud radar for use on UAVs; developing the first solid-state airborne W-band Cloud Radar utilizing digital pulse compression and achieving sensitivities equal to EIK amplifier based systems; developing the first dual-wavelength Doppler radar for airborne hurricane remote sensing (IWRAP); and leading the development of a wireless broadband network solution based on the 802.16 (WiMAX) draft standard.
Selected Articles and Presentations
Lihua Li; Heymsfield, G.; Carswell, J.; Schaubert, D.; McLinden, M.; Vega, M.; Perrine, M.; “Development of the NASA High-Altitude Imaging Wind and Rain Airborne Profiler,” 2011 IEEE Aerospace Conference, pp. 1 – 8.
Chandrasekar, V.; Schwaller, M.; Vega, M.; Carswell, J.; Mishra, K.V.; Meneghini, R.; Cuong Nguyen; “Scientific and engineering overview of the NASA Dual-Frequency Dual-Polarized Doppler Radar (D3R) system for GPM Ground Validation,” 2010 IEEE International Geoscience and Remote Sensing Symposium (IGARSS), pp. 1308 – 1311.
Carswell, J.R.; Perkovic, D.; Tao Chu; Frasier, S.J.; Chang, P.; Jelenak, Z.; “Preliminary investigation of splash effect on high wind C-band HH-pol model function,” 2010 IEEE International Geoscience and Remote Sensing Symposium (IGARSS), pp. 2539 – 2542.
Vega, M.; Carswell, J.; Chandrasekar, V.; Schwaller, M.; Mishra, K.V.; “Realization of the NASA Dual-Frequency Dual-Polarized Doppler Radar (D3R),” 2010 IEEE International Geoscience and Remote Sensing Symposium (IGARSS), pp. 4815 – 4818.
Carswell, J.R.; Heymsfield, G.; Lihua Li; Schaubert, D.; Creticos, J.; “A High Altitude Airborne Wind Mapping Radar,” 2008 IEEE Aerospace Conference, pp. 1 – 7.
McManus, J.J.; Frasier, S.J.; Carswell, J.R.; “Implementation of Pulse Compression on an Airborne Scatterometer,” IEEE International Geoscience and Remote Sensing Symposium, 2008. IGARSS 2008. Vol. 4, pp. IV – 1418 to IV – 1421.
Contreras, R.; Frasier, S.; Chu, T.; Perkovic, D.; McManus, J.; Chang, P.; Jelenak, Z.; Carswell, J.; Esteban-Fernandez, D.; “The Imaging Wind and Rain Airborne Profiler (IWRAP) Data Archive,” IEEE International Geoscience and Remote Sensing Symposium, 2008. IGARSS 2008. Vol. 4, pp. IV – 1181 to IV – 1184.
Lihua Li; Heymsfield, G.; Carswell, J.; Schaubert, D.; Creticos, J.; Vega, M.; “High-Altitude Imaging Wind and Rain Airborne Radar (HIWRAP),” IEEE International Geoscience and Remote Sensing Symposium, 2008. IGARSS 2008. Vol. 3, pp. III – 354 to III – 357.
J Carswell, S. Bidwell, R. Menehini, “A Novel Solid-State, Dual Polarized, Dual Wavelength Precipitation Doppler Radar / Radiometer,” IGARSS 2008, Boston, MA, July, 2008.
Tao Chu; Frasier, S.J.; Fernandez, D.E.; Chang, P.S.; Carswell, J.R.; “The Impact of Surface Scattering on Ocean Atmospheric Boundary Layer (ABL) Wind Profile Estimates from an Airborne Doppler Radar,” IGARSS 2008. Vol. 4, pp. IV – 61 to IV – 64.
J Carswell, G. Heymsfield, L. LI, D. Schaubert, J. Creticos, “A High Altitude Airborne Wind Mapping Radar,” 2008 IEEE Aerospace Conference, Big Sky, Montana, 2008.
- Uhlhorn, et. al, “Hurricane Surface Wind Measurements from an Operation Stepped Frequency Microwave Radiometer,” Monthly Weather Review, accepted for publication in 2007.
Sekelsky, S.M.; Carswell, J.; “High power electronic scanning millimeter-wave radar system design,” 2006 IEEE Aerospace Conference, Publication Year: 2006.
- Esteban Fernandez, J.R. Carswell, et. al.,”Dual-polarized C- and Ku-band Ocean Backscatter response to Hurricane Force Winds,” Journal of Geophysical Research (Oceans), Vol. 111, Aug 2006.
Fernandez, D.E.; Chang, P.; Carswell, J.; Contreras, R.; Chu, T.; “Spectral Behavior of the Ocean Surface Backscatter and the Atmospheric Boundary Layer at C- and Ku-band under High wind and Rain Conditions,” IGARSS 2006. Proceedings. pp. 1871 – 1874.
Fernandez, D.E.; Chang, P.S.; Carswell, J.R.; Contreras, R.F.; Frasier, S.J.; “Airborne measurements of rain and the ocean surface backscatter response at C- and Ku-band,” IGARSS ’05. Proceedings. Vol. 1.
- Esteban, E. Kerr, J. Carswell, A. Zhang, P. Chang, Frasier, S., “IWRAP: the Imaging Wind and Rain Airborne Profiler for Ocean and Atmospheric Boundary Layer Remote Sensing,” IEEE Transactions on Geoscience and Remote Sensing, Vol. 43, No. 8, pp. 1775-1787, 2005.
Fernandez, D.E.; Kerr, E.; Frasier, S.; Carswell, J.; Chang, P.; Jelenak, Z.; Connor, L.; Black, P.; Marks, F.; Alex Zhang; “C- and Ku-band ocean backscatter measurements under extreme wind conditions,” IGARSS ’04. Proceedings. Vol. 1.
Yinghai Ke; Xuehu Zhang; Xiuwan Chen; Jilong Yang; Esteban, D.; Carswell J; Frasier, S.; McLaughlin, D.J.; Chang, P.; Black, P.; Marks, F.; “3-D hurricane boundary layer wind retrieval algorithm for airborne Doppler radar measurements,” IGARSS ’04. Proceedings. Vol. 1.
Jilong Yang; Xuehu Zhang; Xiuwan Chen; Yinghai Ke; Esteban, D.; Carswell, J.; Frasier, S.; McLaughlin, D.J.; Chang, P.; Black, P.; Marks, F.; “Effect of precipitation on ocean wind scatterometry,” IGARSS ’04. Proceedings. Vol. 7, pp. 4913 – 4916.
Fernandez, D.E.; Xuehu Zhang; Castells, A.; McLaughlin, D.; Carswell, J.; Paul Chang; Connor, L.; Black, P.; Marks, F.; “The Imaging Wind and Rain Airborne Profiler – a dual frequency dual polarized conically scanning airborne profiling radar,” IGARSS ’03. Proceedings. Vol. 7, pp. 4246 – 4248.
Fernandez, D.E.; Xuehu Zhang; Carswell, J.; McLaughlin, D.; Chang, P.; Connor, L.; Black, P.G.; Marks, F.D.; “Hurricane wind and rain measurements using a dual polarized C/Ku-band airborne radar profiler,” IGARSS ’03. Proceedings. Vol. 2, pp. 1247 – 1248.
Roman-Nieves, J.I.; Sekelsky, S.M.; Carswell, J.R.; Bolton, W.R.; Tooman, T.P.; “High altitude compact solid state 95 GHz cloud radar,” IGARSS ’02. Vol. 5, pp. 2672 – 2674.
- Frasier, F. Wang, J. Carswell, E. Knapp, and C. Swift; “Pier-based observations of polarized sea surface emission,” Radio Science, 36, 4, 2001.
Castells, A.; Carswell, J.R.; Chang, P.S.; “A high-resolution Imaging Wind and Rain Airborne Profiler for tropical cyclones,” IGARSS ’01. Vol. 5, pp. 2013 – 2015.
- Ramanathan, R. Tessier, D. McLaughlin, J. Carswell, S. Frasier, “Acquisition of Sensing Data on a Reconfigurable Platform,” Proc. of the IEEE International Geoscience and Remote Sensing Symposium, Sydney, Australia, 9-13 July 2001, Vol. 1, pp. 222-223.
Frasier, S.J.; Carswell, J.R.; Capdevila, J.; “A pod-based dual-beam interferometric radar for ocean surface current vector mapping,” IGARSS ’01. Vol. 1, pp. 561 – 563.
Carswell, J.R.; Knapp, E.J.; Chang, P.S.; Black, P.D.; Marks, F.D.; “Limitations of scatterometry high wind speed retrieval,” IGARSS 2000. Proceedings. Vol. 3, pp. 1226 – 1228.
Knapp, E.J.; Carswell, J.R.; Swift, C.T.; “A dual polarization multi-frequency microwave radiometer,” IGARSS 2000. Proceedings. Vol. 7, pp. 3160 – 3162.
Chang, P.S.; Connor, L.N.; Carswell, J.R.; Dunbar, R.S.; “Operational scatterometry: high wind speed retrievals,” IGARSS 2000. Proceedings. Vol. 3, pp. 1045 – 1047.
Connor, L.N.; Chang, P.S.; Carswell, J.R.; “Identification and possible correction of rain contamination in QuikScat/SeaWinds wind retrievals,” IGARSS 2000. Proceedings. Vol. 3, pp. 1238 – 1240.
Stephens, Ellingson, Vitko, Bolton, Tooman, Valero, Minnis, Pilewskie, Phipps, Sekelsky, Carswell, Miller, Benedetti, McCoy, Lederbuhr, Bambha, “The Department of Energy’s Atmospheric Radiation Measurement (ARM) Unmanned Aerospace (UAV) Program,” Bulletin of American Meteorological Society, 81(12), 2000.
J.R. Carswell, W.J. Donnelly, R.E. McIntosh, M.A. Donelan and D.C. Vandemark, “Analysis of C and Ku-band Ocean Backscatter Measurements Under Low-wind Conditions,” Journal of Geophysical Research (Oceans), 104(C9), pp. 20687-20701, 1999.
W.J. Donnelly, J.R. Carswell, R.E. McIntosh, P. Chang, J. Wilkerson, P. Black, F. Marks, “Revised Ocean Backscatter Models at C and Ku-band Under High Wind Conditions,” Journal Of Geophysical Research (Oceans), 104(C5), pp. 11485-11498, 1999.
Carswell, J.; Knapp, E.; Goodberlet, M.; Chang, P.; “Active/passive remote sensing of ocean wind vector for hurricane reconnaissance applications,” IGARSS ’99 Proceedings. Vol. 3, pp. 1854 – 1856.
Donnelly, W.J.; Carswell, J.R.; McIntosh, R.E.; Chang, P.S.; Wilkerson, J.C.; “Investigation of the ocean backscatter during high wind events. II. Analyses and revised high wind backscatter models,” IGARSS ’98 Proceedings. Vol. 5, pp. 2314 – 2316.
Jones, W.L.; Jun-Dong Park; Donnelly, W.J.; Carswell, J.R.; McIntosh, R.E.; Zec, J.; Yueh, S.; “An improved NASA Scatterometer geophysical model function for tropical cyclones,” IGARSS 1998 Proceedings. Vol. 4, pp. 1994 – 1997.
Chang, P.S.; Wilkerson, J.C.; Donnelly, W.J.; Carswell, J.R.; McIntosh, R.E.; “Investigation of the ocean backscatter during high wind events. I. Experiment description and results,” IGARSS 1998 Proceedings. Vol. 5, pp. 2311 – 2313.
Bambha, R.P.; Carswell, J.R.; Mead, J.B.; McIntosh, R.E.; “A compact millimeter wave radar for airborne studies of clouds and precipitation,” IGARSS 1998 Proceedings. Vol. 1, pp. 443 – 445.
David E. Weissman, Fuk K. Li, Shu-hsiang Lou, Son V. Nghiem, Gregory Neumann, Robert E. McIntosh, Steven C. Carson, James R. Carswell, Hans C. Graber, Robert E. Jensen; “Measurements of Ocean Surface Stress Using Aircraft Scatterometers,” Journal of Atmospheric and Oceanic Technology Volume 14, Issue 4 (August 1997) pp. 835-848.
Petronino, M.; Bambha, R.; Carswell, J.; Burleson, W.; “An FPGA-based data acquisition system for a 95 GHz W-band radar,” IEEE International Conference on Acoustics, Speech, and Signal Processing (ICASSP-97). Vol. 5, pp. 4105 – 4108.
Gasiewski, A.J.; Piepmeier, J.R.; McIntosh, R.E.; Swift, C.T.; Carswell, J.R.; Donnelly, W.J.; Knapp, E.; Westwater, E.R.; Irisov, V.I.; Fedor, L.S.; Vandemark, D.C.; “Combined high-resolution active and passive imaging of ocean surface winds from aircraft,” IGARSS ’97. Remote Sensing – A Scientific Vision for Sustainable Development. Vol. 2, pp. 1001 – 1005.
Vandemark, D.; Hines, D.; Chapron, B.; Carswell, J.; Donnelly, W.; “Observations of the ocean surface using an aircraft altimeter, scatterometer and ROWS,” IGARSS ’96. ‘Remote Sensing for a Sustainable Future.’, Vol. 2, pp. 1385 – 1388.
Carswell, J.; Donnelly, W.; McIntosh, R.; “Remote sensing of the near surface-ocean wind vector under low-wind conditions using scatterometry,” IGARSS ’96. ‘Remote Sensing for a Sustainable Future.’, Vol. 3, pp. 1466 – 1468.
Carswell, J.; Donnelly, W.; McIntosh, R.; “Investigation of the azimuthal response of off-nadir backscatter from the ocean surface,” IGARSS ’95. ‘Quantitative Remote Sensing for Science and Applications’, Vol. 3, pp. 1637 – 1639.
Nghiem, S.V.; Li, F.K.; Shu-Hsiang Lou; Neumann, G.; McIntosh, R.E.; Carson, S.C.; Carswell, J.R.; Walsh, E.J.; Donelan, M.A.; Drennan, W.M.; “Observations of radar backscatter at Ku and C bands in the presence of large waves during the Surface Wave Dynamics Experiment,” IEEE Transactions on Geoscience and Remote Sensing, Vol. 33, Issue 3, pp. 708 – 721.
Carswell, J.R.; Carson, S.C.; McIntosh, R.E.; Li, F.K.; Neumann, G.; McLaughlin, D.J.; Wilkerson, J.C.; Black, P.G.; Nghiem, S.V.; “Airborne scatterometers: investigating ocean backscatter under low and high-wind conditions,” Proceedings of the IEEE, Vol. 82 , Issue 12, pp. 1835 – 1860.
Founder & Chief Financial Officer
Mr. James D. Canniff holds a MBA from Babson College and a BS in Accounting from Providence College. As CFO he performs the Controllership responsibilities of the company, including the preparation of financial statements, assistance with proposals and budgets, and the negotiation and administration of corporate contracts.
Mr. Canniff also assists with Product Development. He has been designing and developing complex software systems in varying capacities for the past several years. He has been instrumental in designing, deploying, supporting and training users of these systems for a variety of Fortune 500 companies. His expertise in designing and constructing user interfaces coupled with extensive experience in user requirements gathering and business systems analysis has led to the successful deployment of many web-based application.
Mr. Canniff joined RSS to collaborate on the initial development of the Storm Analyzer System built for NOAA NESDIS/ORA. Mr. Canniff designed and produced the user interface for this system, which included determining an appropriate architecture and creating logical and visual components using Java technology. Prior to joining RSS, Mr. Canniff worked for Widax Corporation as a software engineer designing an advanced network data management system for a wireless internet base station system driving the development of the IEEE 802.16 (WiMAX) standard. He has also worked as an electronic commerce consultant to Fortune 500 companies. As a team member in these consultative roles, he devised and built web-based systems such as: call center applications, knowledge management systems, global expatriate human resources systems and marketplace exchange solutions, to name a few.
Chief Executive Officer
Mr. Mike Fernandes holds a BSME from Northeastern University and a Certificate in Management Essentials from Wharton Business School. Prior to joining RSS, Mr. Fernandes spent his career in leadership roles at various companies designing and manufacturing elastomeric seals for various markets. During an 11 year period at Acushnet Rubber Company he helped the company grow from $40mm to $110mm while holding leadership positions in both engineering and operations. Mr. Fernandes became one the youngest Directors of Engineering in the company’s 100+ year history. He was assigned to lead all major business development including Fuel Seals, Golf Grips, and specialty wiper blades all totally over $50mm annually. He then co-founded and led an ISO9001 and TS16949 design and manufacturing company that grew sales through the development of products/processes, development of IP, building a sales network, development of a state of the art manufacturing facility, and through the acquisition of two smaller competitors.
Mr. Fernandes’ technical, business and entrepreneurial skills are being utilized by RSS to help it develop and commercialize products and services the company has spent years in research and development. Mr. Fernandes believes that game changing products and services can be developed for applications in aerospace, automotive, marine, defense, environment, and science. Since joining the company in late 2016, the company has been transformed into a commercial supplier of COTs products with product revenue growth over 700% while also maintaining R&D efforts to expand product offerings.
Dr. Guy J-P. Schumann
Dr. Guy Schumann received both the M.Sc.(Remote Sensing) and Ph.D. (Geography) degrees from the University of Dundee (Scotland). Dr. Schumann has more than 10 years of experience in the field of remote sensing data integration with hydrodynamic modeling and particularly radar remote sensing and its use in flood model calibration and validation. He has done extensive work on flood inundation mapping from SAR and integration of uncertainties. His recent research focuses on large-scale flood inundation modeling and integration with remotely sensed data. Most of his current work and projects are NASA- and JPL-funded projects focusing on simulating river hydrodynamics and floodplain inundation, particularly as part of pre-mission projects for the upcoming NASA/CNES SWOT (Surface Water Ocean Topography) mission and the NASA ROSES (Research Opportunities in Space and Earth Sciences) program. Dr Schumann is also involved in the Interoperability Program activities of the Open Geospatial Consortium (OGC). Dr. Schumann is currently also a Visiting Research Fellow at Geographical Sciences, University of Bristol. Prior to joining Remote Sensing Solutions Inc., he was a GWR Fellow and lecturer in Hydrology at the School of Geographical Sciences, University of Bristol (England) from October 2007 to March 2012. After that, Dr. Schumann took up a Postdoctoral Research Scholar position at the NASA Jet Propulsion Laboratory (JPL), California Institute of Technology. In September 2014, he moved to UCLA as an Associate Researcher for one year before joining Remote Sensing Solutions Inc. in September 2015.
Dr. Delwyn Moller
Principal Systems Engineer
Delwyn Moller received the Ph.D. degree in Electrical Engineering from the University of Massachusetts-Amherst, the M.E (with Distinction) degree from University of Auckland, New Zealand and the B.E. (Hons) degree from University of Auckland, New Zealand. Since joining RSS, Dr. Moller has continued her development of novel remote sensing systems for Earth Science. Prior to joining RSS, Dr. Moller was a radar system engineer at NASA Jet Propulsion Laboratory, where she was Principal and Co-Investigator on many research projects to include radar remote-sensing of the ocean, soil moisture, cryosphere and surface-water bodies. She was a co-recipient of the NASA Space Act award (2004) a NASA Board Award (2011) and has received three NASA Technology Brief awards.
Dr. Brian Pollard
Principal System Engineer
Brian Pollard is focused on the development of new, state-of-the-art systems and measurement concepts. He has over 25 years of radar remote sensing experience for atmospheric, oceanographic, terrestrial, and engineering applications.
Dr. Pollard received his BSEE degree from the University of Houston, and his Ph.D. in Electrical and Computer Engineering from the University of Massachusetts. His Ph.D. research focused on the development of a large, digitally beamformed array for volume-imaging of atmospheric boundary layer turbulence. He joined NASA’s Jet Propulsion Laboratory in 1998, where he was active in the development of high accuracy radar interferometry, altimetry, and velocimetry sensors for numerous applications. He was the lead system architect and engineer for the 2011 Curiosity / Mars Science Laboratory radar Terminal Descent Sensor, supervisor of the Radar Concept and Formulation Group within the Radar Science and Engineering Section, and Instrument Manager for the Ka-band radar interferometer on the NASA/France/Canadian partnered Surface Water / Ocean Topography mission. He has received numerous NASA awards, including the Exceptional Achievement Medal in 2013 for his work on the Curiosity lander.
Principal Hardware/Software Engineer
Torry Akins received both his M.S. and B.S. degrees in Electrical Engineering from the University of Kansas.
Since joining RSS, Mr. Akins has developed a 1 GHz Direct Digital Synthesizer (DDS) module and a 3.6 GHz 12 bit data acquisition module. The DDS module supports the generation of multiple linear chirps and/or pulses. Additionally, it supports the application of arbitrary amplitude tapers to its output waveforms. The data acquisition modules can directly capture high bandwidth radar returns. These data are buffered and transferred over a high speed serial link to RSS’s digital receiver. Multiple data acquisition modules can be synchronized to capture the return from a multi-channel radar system.
Prior to joining RSS, Mr. Akins worked in the Aviation Department at Garmin International where he led the development of several of Garmin’s transponder products. Before that, he was at the University of Kansas where he worked as a staff engineer at the Center for the Remote Sensing of Ice Sheets (CReSIS). During that time, he developed the waveform generators and data acquisition systems for several airborne and ground based radar systems.
Senior Systems Engineer
Mr. Chad A. Baldi received both B.S. and M.S. degrees in Electrical Engineering from the University of Massachusetts Amherst. Mr. Baldi has worked in the remote sensing industry since 2004 and has had a major role in the development of dozens of customized remote sensing instruments for ground-based, mobile, airborne, and spaceflight applications.
Through 2014, Mr. Baldi served as a technical project manager for a remote sensing company specializing in the customization of radar and radiometer instruments for both research and industrial applications. Among his accomplishments, he developed and fielded several in situ scatterometers at S-, C-, X-, and Ku-bands for snow and sea ice characterization, mobile radars for tornado research, and an airborne Ku-band wide swath radar altimeter to investigate the air-sea interaction within hurricanes. He also led the development of several polarimetric Ka-band atmospheric radars, which are currently deployed worldwide to study cloud dynamics. In 2014, Mr. Baldi joined NASA’s Jet Propulsion Laboratory, where he was active in hardware development and technical project management for several spaceflight missions. He served as the product delivery lead for the Terminal Descent Sensor landing radar on the Mars 2020 rover mission and also co-managed the integration / test campaign for the HF power amplifier subsystem of the Radar for Icy Moon Exploration instrument for the Jupiter Icy Moons Explorer mission. In addition to his technical management roles, he designed / built several precision RF instruments to qualify key subsystems of the Ka-band radar interferometer for the Surface Water Ocean Topography mission. He also served as the lead system architect for numerous airborne and ground-based research instruments at JPL, including a novel three-band snowpack tomography radar.
Bryan Townley received a B.S. degrees in Electrical Engineering from the University of Kansas.
Prior to joining RSS, Mr. Townley worked six years at the Center of Remote Sensing of Ice Sheets (CReSIS) where he worked as a printed circuit board (PCB) designer developing printed circuit assemblies (PCA’s) a circuit components for ground penetrating imaging radars. During that time, he developed radio frequency components that covered the HF to UHF spectrum. He also was the primary power supply designer and wiring technician on new radar builds.
When Bryan was not designing circuit boards he served as a lead field engineer with NASA’s Operation Ice Bridge polar research campaign. For more than five years he played a intricate role in preparing and integrating radar equipment to fixed wing NASA aircraft. His role did not stop there. Bryan has spent more than 2000 hours on three different NASA manned aircraft collecting snow/ice thickness data over the Arctic and Antarctic regions.