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David Woerner
Project Manager, Jet Propulsion Laboratory: JPL Lead for RPS Systems Engineering and Integration activities for NASA's Radioisotope Power Systems Program. Editor of the published book, The Technology of Discovery: Radioisotope Thermoelectric Generators and Thermoelectric Technologies for Space Exploration. Previously, David was the Systems Formulation Manager for the Radioisotope Power System Program at NASA, the MMRTG Office manager for the MSL mission, and earlier the Chief Engineer of the avionics for Mars Pathfinder. 40 years of experience at JPL and the Laboratory of Atmospheric and Space Physics, University of Colorado, including work on the Galileo, Cassini, and Magellan missions. Chair, Board of Directors of IEEE Aerospace Conferences. Numerous NASA awards, including the Exceptional Service and Exceptional Achievement Awards.
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Kendra Cook
, : Space System Security SME at SAIC and Owner/Principal of C2 International. Served 7 years as an Officer in the U.S. Air Force, specializing in UAVs and air-launched weapons systems. Prior work includes Senior Systems Engineer and Mission Protection Engineer at NASA/JPL, NOAA’s Lead Systems Engineer on the COSMIC-2 joint US-Taiwan satellite program, design of UAV prototypes at the National Geospatial Intelligence Agency, and Information Assurance for the Navy’s Distributed Common Ground System. B.S. in Aerospace Engineering, Boston University; M.S., Astronautical Engineering and Computer Engineering, Air Force Institute of Technology.
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Steven Arnold
Deputy Executive, Civil Space, Johns Hopkins University/Applied Physics Laboratory: Deputy Executive, Civil Space, Johns Hopkins University/Applied Physics Laboratory. Oversees all Civil Space programs at APL, including missions such as NASA's New Horizons, Parker Solar Probe, and Dragonfly. Responsible for strategic activities such as core technology development, internal research and development, external partnering programs, program formulation, and program execution. Formerly held senior technical and management positions at Hughes and DirecTV. BS, Electrical Engineering, Virginia Tech; MS, Electrical Engineering, Purdue University.
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Keyur Patel
Associate Director for Flight Projects and Mission Success, NASA Jet Propulsion Lab: Keyur Patel is currently the Director for Astronomy and Physics at NASA’s Jet Propulsion Laboratory and represents the Directorate as a member of JPL’s Executive Council. He is responsible for all aspects of research, technology, development and operations, program planning, formulation and development, and execution of the Directorate’s missions. He has held positions as the Deputy Director for Planetary Science, Director for the Interplanetary Directorate, Deputy Director for Office of Safety and Mission Success. As Project Manager for Dawn, he shepherded the mission through its launch to orbit and study the protoplanets Vesta and Ceres. He served as Deputy Project Manager and Chief Engineer for the Deep Impact mission, helping to ensure the spacecraft’s successful encounter with comet Tempel 1.
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2.01 Current Space and Earth Science Missions
Addresses status and results of missions in development, implementation, and operation. Session objective is to provide a full mission prospective and discuss the system level trade offs, challenges and lessons learned. From operational missions, results are discussed along with the in-flight challenges. Session addresses all types of missions from Earth orbiting to planetary to heliophysics to astrophysics missions.
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James Graf
Director, Earth Science and Technology Directorate, Jet Propulsion Laboratory: Director for Earth Science and Technology Directorate at JPL. Formerly, Manager of JPL's Mars Reconnaissance Orbiter Project and the Quick Scatterometer Mission, an Earth-orbiting satellite. Recipient of NASA's Outstanding Leadership Medal and Aviation Week's 1999 'Laurel for Space.' BSE, Princeton University; MS, Colorado State University.
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Keyur Patel
Associate Director for Flight Projects and Mission Success, NASA Jet Propulsion Lab: Keyur Patel is currently the Director for Astronomy and Physics at NASA’s Jet Propulsion Laboratory and represents the Directorate as a member of JPL’s Executive Council. He is responsible for all aspects of research, technology, development and operations, program planning, formulation and development, and execution of the Directorate’s missions. He has held positions as the Deputy Director for Planetary Science, Director for the Interplanetary Directorate, Deputy Director for Office of Safety and Mission Success. As Project Manager for Dawn, he shepherded the mission through its launch to orbit and study the protoplanets Vesta and Ceres. He served as Deputy Project Manager and Chief Engineer for the Deep Impact mission, helping to ensure the spacecraft’s successful encounter with comet Tempel 1.
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Stephen Schmidt
Deputy Associate Director, Planetary Science Projects Division, NASA GSFC: Deputy Associate Director, Planetary Science Projects Division, Goddard Space Flight Center (GSFC). Former Deputy Associate Director, Instrument and Special Projects Division; Branch Head, Instrument & Payloads Systems Engineering Branch; Associate Division Chief, Mission Engineering and Systems Analysis Division; Associate Division Chief, Mechanical Systems Division.
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2.02 Future Space and Earth Science Missions
Future space or Earth science programs or missions in formulation or concept development.
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Alex Austin
Systems Engineer, Jet Propulsion Laboratory: Alex Austin is a Systems Engineer in the Advanced Design Engineering group at JPL. He is the Flight System Systems Engineer for the INCUS mission, as well as the Lead Engineer for Team Xc, JPL’s formulation team for CubeSat and SmallSat missions. He received a bachelor’s degree in Aeronautical and Mechanical Engineering and a master’s in Aeronautical Engineering from Rensselaer Polytechnic Institute.
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Michael Gross
Project Manager, GRACE-C Project, NASA Jet Propulsion Lab: Michael Gross started his career at the Jet Propulsion Laboratory in August of 1996. Mike has served as the GRACE Project Mission Assurance Manager, the Deputy Mission Assurance Manager of the MER Project, the Phoenix Mars Lander Project Payload Manager, Assistant Division Manager for Flight Projects of JPL's Autonomous Systems Division, Manager of the Power and Sensor Systems Section, Deputy Project and Flight System Manager of the GRACE-FO Project, and Manager of the Autonomous System Division. In 2021 Mike, along with three colleagues, was awarded the AIAA International Cooperation Award for “outstanding leadership of the international consortium in the planning and implementation of the successful Earth gravity missions.”. Mike is currently the Manager of the GRACE-C Project. He is an AIAA Associate Fellow, a Senior Member of the IEEE, and a Corresponding Member of the IAA
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2.03 System and Technologies for Landing on Planets, the Moon, Earth and Small Bodies
This session includes landing spacecraft, including precision and safe landing, atmospheric entry, descent, and landing/rendezvousing with small bodies.
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Ian Clark
Systems Engineer, Jet Propulsion Laboratory: Ian is a systems engineer in the EDL and Advanced Technologies Group at the Jet Propulsion Laboratory. He currently serves as the Mars Ascent Phase Lead for the Mars Sample Return Mission. He has previously served as a Visiting Assistant Professor in the Guggenheim School of Aerospace Engineering at the Georgia Institute of Technology and PI of NASA's LDSD and ASPIRE projects.
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Clara O'Farrell
Guidance and Control Engineer, Jet Propulsion Laboratory: Clara O’Farrell is an engineer in the Entry, Descent, and Landing Guidance and Control Systems Group at JPL. She received a PhD in Control and Dynamical Systems from Caltech in 2013, and a BSE in Mechanical and Aerospace Engineering from Princeton University in 2008. Since joining JPL in 2013, she has worked on the Low-Density Supersonic Decelerators and Mars 2020 projects. She is the recipient of JPL's Charles Elachi Award and the NASA Early Career Exceptional Public Achievement Medal.
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2.04 Robotic Mobility and Sample Acquisition Systems
Use of robotic systems for in situ space exploration involving robotic mobility, manipulation, and sampling. All aspects of these robotic systems - including design, development, implementation, validation and operation - are valued topics of presentation. Research prototypes as well as fielded or flown systems are of interest.
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Richard Volpe
Directorate Technologist, Jet Propulsion Laboratory: Richard Volpe is the Chief Technologist of the Engineering and Science Directorate. The directorate is home to the large majority of engineers and scientists at JPL. The technology community of this directorate develops new capabilities in response to mission needs and science objectives for investigation of the earth, the sun, the planets, and the cosmos.
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Paul Backes
Group Supervisor, Jet Propulsion Laboratory: Paul Backes, Ph.D. is the Group Supervisor of the Robotic Manipulation and Sampling group at Jet Propulsion Laboratory, where he has worked since 1987. He received the BSME degree at U.C. Berkeley in 1982 and Ph.D. in ME from Purdue University in 1987. His awards include NASA Exceptional Engineering Achievement Medal (1993), JPL Award for Excellence (1998), NASA Software of the Year Award (2004), IEEE Robotics and Automation Technical Field Award (2008), NASA Exceptional Service Award (2014), and Purdue University Outstanding Mechanical Engineer Alumni Award (2021).
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Joseph Bowkett
Robotics Technologist, Jet Propulsion Laboratory: Joseph Bowkett, Ph.D., is a Group Lead and Robotics Technologist researcher in the Mobility & Robotics Systems section of NASA’s Jet Propulsion Laboratory. His past work on autonomous robotic manipulation includes convoy path clearing for the Army Research Laboratory's "Robotics Collaborative Technology Alliance," drilling and sample collection for the proposed Europa Lander mission, mobility in complex terrains in the Exobiology Extant Life Surveyor (EELS) research task, and others. Joseph's current work involves developing novel 'in-contact manipulation' behaviors for the MSR Sample Return Lander's "Sample Transfer System" that will place each sample tube into the Mars Ascent Vehicle.
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2.05 Future Missions & Enabling Technologies for In Situ Exploration, Sample Returns
Future mission concepts, planetary protection technologies, sample handling techniques, novel technologies for in situ exploration, technologies not covered under robotic mobility and sample acquisition, human precursor mission concepts, and technologies that enable precursor missions.
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Elena Adams
Systems Engineer, Johns Hopkins University/Applied Physics Laboratory: Elena Adams is a Principal Staff at Johns Hopkins Applied Physics Laboratory. She received a B.S. from University of Virginia; an M.S. and Ph.D., and an M.E. from the University of Michigan. Since joining APL in 2008, she worked on Van Allen Probes, ExoMars MOMA, Europa Clipper, Parker Solar Probe, and most recently led the DART team as a Mission and Spacecraft Systems Engineer. She is currently the Dragonfly Lander Systems Engineer. She has worked with NOAA and Planetary Defense Coordination Office on a number of studies for future mission architectures and survey approaches, and on a variety of instrument and spacecraft technologies. She won NASA grants for developing technology for future space exploration, including a hopping lander to explore asteroids and a sampling system for collecting water from Enceladus, a moon of Saturn. She participates on multiple flight project standing review boards.
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Christopher Green
Assistant Chief for Technology, NASA - Goddard Space Flight Center: Mr. Christopher Green serves as the Assistant Chief for Technology within the Electrical Engineering Division at the NASA Goddard Space Flight Center.
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2.06 In Situ Instruments for Landed Surface Exploration, Orbiters, and Flybys
This session solicits papers that describe advanced instrument concepts and/or innovative analytical protocols that enable the in situ characterization of planetary bodies. Instruments and/or protocols that investigate surface and subsurface chemistry and geology (including elemental, isotopic, molecular, mineralogical composition), astrobiological potential, geophysical processes (such as tectonics, internal structure, heat flow, geochronology), atmospheric chemistry and dynamics, dust and particles, charged particles/plasmas, and/or magnetic fields of planetary bodies are encouraged.
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Xiang Li
Research Scientist, NASA Goddard Space Flight Center: Xiang Li received his Ph.D. in Physical Chemistry from the Johns Hopkins University in 2009. He is a mass spectrometry scientist at NASA Goddard Space Flight Center. His research focuses on the detection of trace element and astrobiologically relevant organic molecules in planetary systems, such as Mars, Europa and Titan. He is especially interested in the instrument development of time-of-flight and ion trap mass spectrometers with various ionization and ion gating techniques.
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Jacob Graham
Research Space Scientist, NASA Goddard Space Flight Center: Jacob Graham is a Research Space Scientist in the Planetary Environments Lab at NASA Goddard Space Flight Center. He received his Ph.D. in Chemistry from the Johns Hopkins University and was a postdoctoral scholar at the University of Chicago. As an instrumentalist his research interests broadly includes mass spectrometry, ionization processes, laser desorption and molecule-surface interactions.
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Terry Hurford
Scientist, : Planetary scientist
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2.07 Mission Design, Formation Flying and Constellations
This session covers all aspects of mission design for spacecraft flying to or about Earth, other celestial bodies and deep space. A specific interest is devoted to missions involving distributed systems, as formation flying and constellations. Papers dealing with preliminary and advanced design, actual mission implementation and operational issues are welcome.
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Giovanni Palmerini
Professor, Guidance and Navigation, Sapienza Universita' di Roma: Full professor of Aerospace Systems at Sapienza Univ. of Rome, has been working after graduation in 1991 as aeronautical engineer for Italspazio, then back to university (PhD in 1996), visiting scholar at Stanford, later - as researcher at Sapienza - participant in design, test and launch (2000) of UNISAT, first Italian university microsatellite. Currently co-leader of the Guidance and Navigation Lab, working on testbeds for proximity space ops. Research interests in orbital dynamics, space systems, satellite/inertial/integrated navigation. PhD Aerosp.Eng., Univ.Rome (1996). Senior Member AIAA, Member IEEE, ION and AIdAA. Corresponding Member (2016) and lifetime Member (2020) of the International Academy of Astronautics.
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Leonard Felicetti
Senior Lecturer in Space Robotics and GNC, Cranfield University: Dr. Leonard Felicetti is a Senior Lecturer in Space Robotics and GNC at Cranfield University (UK). He obtained his Ph.D. and he was a Post-Doc Researcher in Sapienza - University of Rome (Italy). In 2015, he was Honorary Research Associate at University of Glasgow (UK) and then, Associate Senior Lecturer in On-board Space Systems in Luleå University of Technology (Sweden). He joined Cranfield University (UK) in 2019. Leonard's main research interests are on Guidance, Navigation and Control of Space Systems; Spacecraft Orbital and Attitude Control; Spacecraft Formation Flying; Space Robotics; Autonomous Distributed Space Systems; Spacecraft and Mission Design.
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Ryan Woolley
Mission Design Engineer, Jet Propulsion Laboratory: Ryan Woolley is a mission design engineer in the Inner Planet Mission Analysis group at JPL. His focus has primarily been on early mission formulation for the Mars Exploration Program. This includes mission concept studies, systems engineering, propulsion systems, low-thrust trajectories and optimization, mission design tools, and launch vehicle performance. He has worked on nearly all aspects of the Mars Sample Return campaign and has recently begun focusing on small missions to Mars. He received a B.S. in Physics-Astronomy from Brigham Young University, an M.S. in Astronautical Engineering from the University of Southern California, and a Ph.D. in Aerospace Engineering from the University of Colorado. He has been at JPL since 2005.
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2.08 Space Radiation and its Interaction with Shielding, Electronics and Humans
The mitigation of adverse effects from radiation on humans and electronics in space is a critical step in mission success. This session focuses on research in understanding the nature of the radiation field in space and how that field is changed as it passes through shielding materials, electronics, and the human body. Topics include radiation measurements made in space, projectile and target fragmentation measurements and materials studies conducted at accelerator facilities on ground, radiation transport modeling, improvements of nuclear reaction models and radiation transport codes, shielding of electronics and humans, and benchmarking of measurements performed both in space and on ground for the verification and validation of the transport codes.
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Lembit Sihver
Professor Dr., TU Wien and NPI of the CAS: Dr. Sihver is the Co-founder and CTO for Cosmic Shielding Corporation (CSC), GA, USA. He as around 35 years experience of teaching, and international R&D in space radiation protection, dosimetry, medical radiation physics, nuclear physics, nuclear chemistry, material science and nuclear engineering. He has been the principle investigator for simulations and analyses for many experiments at the International Space Station (ISS) in close collaboration with NASA, EU, ESA, JAXA and Roscosmos. Dr. Sihver is an adjunct Professor at Chalmers University of Technology, Sweden, University of Houston, Roanoke College, East Carolina University, and Texas A&M University, USA, the Royal Military College of Canada, Canada, TU Wien, Austria, Sunway University, Malaysia, and at the Medical College of Soochow University, China. Dr. Sihver is an editor and co-editor for many international recognized scientific journals. He is also an official peer reviewer for many international research funding organizations, as well as for more than 40 different international scientific journals. Dr. Sihver has authored and published around 400 scientific and technical articles and abstracts in peer-reviewed international journals, books, and international conference proceedings. He has presented his work with more than 400 oral and poster presentations.
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Ondrej Ploc
Senior researcher, Nuclear Physics Institute of the Czech Academy of Sciences: Ondrej Ploc is a senior researcher at the Nuclear Physics Institute of the Czech Academy of Sciences, Department of Radiation Dosimetry, laboratory head of the Dosimetry group focusing on the detection and dosimetry of high-energy complex radiation fields with various applications in the research of new atmospheric phenomena, medicine, civil aviation, and in space. He graduated in nuclear engineering from the Czech Technical University in Prague and obtained his Ph.D. in 2009. He spent two years as a postdoc in Japan, Chiba, National Institute of Radiological Sciences, and one-year postdoc in Sweden, Göteborg, Chalmers University of Technology. He is a member of ISO/TC85/SC2 WG21 Dosimetry for Exposures to Cosmic Radiation in Civilian Aircraft. He is the PI and director of the Research Center of Cosmic Rays and Radiation Events in the Atmosphere and several other projects focused on cosmic rays and atmospheric radiation detection and dosimetry at high-altitude observatories, aircraft, and spacecraft. He is a member of the EURADOS group, involved mostly in WG11High-energy radiation fields as a leader of Task 8 (Radiation dose induced by natural electric discharge in the atmosphere).
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2.09 Space Debris and Micrometeoroids: The Environment, Risks, and Mitigation Concepts and Practices
Operational satellites are at risk from collisions with the more than 20,000 trackable debris objects that remain in orbit today, as well as hundreds of thousands of objects, including micrometeoroids, that are too small to be cataloged. Beyond the realm of Earth-oriented orbits, unique and immensely valuable science-gathering spacecraft can also be exposed to similar hypervelocity collisional risks, but from cometary and asteroidal micro-milliscale particles (dust). Papers are invited that address the space debris population and growth projections; debris and dust characteristics; impact modeling and materials testing; modeling and simulation and/or test results that can lead to quantification of the risks to spacecraft in various orbits and exploration missions; and mitigation strategies including debris removal or repositioning, spacecraft shielding, orbit selection, and spacecraft operations. Papers documenting past mission anomalies traced to space debris, and mitigation strategies employed today, are also of interest.
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James Kinnison
Mission System Engineer, JHU-APL: Jim Kinnison develops mission concepts for the Johns Hopkins University Applied Physics Laboratory. He has served as the Mission System Engineer for Parker Solar Probe since the mission concept study began in 2007, and has led the development of more than a dozen concepts, such as Interstellar Probe. He received a B.S. in Physics from Northeast Louisiana University, Monroe, Louisiana in 1984, an M.S. in Physics from Michigan State University, and a PhD in Physics from Clemson University in 2005. He has been with JHU/APL for more than 37 years, where he developed radiation models and worked systems mitigations for radiation effects in microelectronics for more than 10 spacecraft and several long-duration balloon flights. After serving as System Assurance Manager for the New Horizons mission to Pluto, he now focuses on system engineering for scientific space missions and advanced mission concept development.
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Yasin Abul-Huda
Space Environmental Effects Modeling and Analysis, Johns Hopkins University/Applied Physics Laboratory: Dr. Yasin Abul-Huda is a senior member of the technical professional staff at the JHU APL where he develops and implements physics-based models to predict space environmental effects. Currently his work supports the Dragonfly mission through modeling contamination mass transport processes and hypervelocity impacts. Prior to joining APL, he was a part of the JWST science and engineering team, supporting observatory and NIRSpec commissioning activities and assessing in-orbit performance. He completed his Ph.D. in Aerospace Engineering from the University of Michigan in 2017 and his technical expertise and interests are in the areas of thermal/fluid sciences, combustion, imaging/sensing, and spectroscopy.
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2.10 Asteroid Detection, Characterization, Sample-Return, and Deflection
This Session invites papers on flight and ground system concepts, mission concepts, and technologies that address the need to detect, characterize and deflect asteroids that could pose an impact hazard to Earth. Papers on instrument technologies and technologies for proximity operations near, and landing on, asteroids are also sought.
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Jeffery Webster
Senior Systems Engineer, retired, NASA / Caltech / Jet Propulsion Laboratory: Retired Senior Systems Engineer. NASA/Jet Propulsion Laboratory: Project Support Lead-Project Support Office; Mission Systems Concepts Section-Mars Trace Gas Orbiter; Project Planner & Systems Engineering; Associate Engineer, Mission & Systems Concepts Section. Publications and awards available upon request.
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Paul Chodas
Director, Center for Near-Earth Object Studies, Jet Propulsion Laboratory: Dr. Paul Chodas is Director of the JPL's Center for Near-Earth Object Studies (CNEOS), NASA's center for computing the orbits of asteroids and comets and assessing their chances of impacting Earth. He designed and developed the original components of JPL’s small-body orbit determination and prediction processes, including core software that assesses impact probabilities. He used these tools in 1994 to successfully predict the times and locations of the Comet Shoemaker-Levy 9 impacts on Jupiter. He coined the term "keyhole" to describe a gravitational gateway that leads from an asteroid's Earth close approach to a later impact, and has assessed the chances of numerous asteroids passing through keyholes on their way to impact. Over the past decade, Dr. Chodas has developed and led several hypothetical asteroid impact exercises for use by the planetary defense community, and has analyzed the effectiveness of various techniques for asteroid impact mitigation, including ion-beam deflection.
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Michael Werth
Senior Scientist, The Boeing Company: Michael Werth received a BS in Physics from the University of Arizona in 2007 and a Ph.D. in Physics from UC Irvine in 2012. Most of his undergraduate and graduate career was spent at CERN working with the Large Hadron Collider’s ATLAS Detector searching for fourth generation quarks and working with data acquisition systems. Michael joined The Boeing Company where he has developed expertise in SAR and EO image processing and additional research interests in deep learning, high-performance computing, and multi-sensor fusion.
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2.11 In-Space Robotics: Proximity Operations, Servicing, Assembly, Manufacturing, and Active Debris Removal
On-going and future missions involving in-space robotic systems and operations, to include in-space Inspection, Servicing, Active Debris Removal, Assembly, and Astronaut Assistance. All designs and methods to accomplish robotic tasks in orbit, such as mobility, manipulation, assembly or maintenance, are of interest. Specific aspects may be addressed, such as hardware design, open-loop or closed-loop control, rendezvous trajectory generation, computer vision, autonomy, tele-operation, experimental facilities on the ground, or others of relevance. Mission concept papers are to include technical development toward ground testing or flight operation.
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David Sternberg
Guidance and Control Engineer, NASA Jet Propulsion Laboratory: David Sternberg is a guidance and control systems engineer at the NASA Jet Propulsion Laboratory, having earned his SB, SM, and ScD degrees in the MIT Department of Aeronautics and Astronautics. He is currently working on the development and testing of attitude determination and control systems for several satellites including the Psyche mission, as well as the creation of various spacecraft testbeds and simulations. His doctoral work in Space Systems Engineering focused on the development of optimal trajectories for docking to tumbling targets with uncertain properties.
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Kenneth Cheung
research scientist, NASA - Ames Research Center: Dr. Kenny C. Cheung serves as a technical lead on advanced materials and manufacturing. As a researcher in the NASA Ames Research Center (ARC) Intelligent Systems Division, he directs the Coded Structures Laboratory (CSL), which conducts interdisciplinary research at the intersection of design, algorithms, material science, mechanical engineering, and aeronautical engineering. Example work focuses on applying building-block based (digital) materials and algorithms to aeronautical and space applications. This includes shape morphing aircraft and large scale long duration space system infrastructure. Before joining NASA, Kenny received his Ph.D. from the Center for Bits and Atoms at the Massachusetts Institute of Technology, where he showed that digital material strategies can be used to make new kinds of materials (strong and light weight), and new kinds of robots (like transformers). He has numerous papers and patents on topics ranging from high performance composite material manufacturing systems to synthetic protein folding algorithms, surgical devices, and indoor mobile device location systems. He’s particularly fond of applying rapid prototyping to test ideas that can change the status quo in design, based on physical first-principles analyses.
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Technologies, techniques, demonstrations and applications of Antennas, RF and Microwave systems, components, and instruments, and Radio Science
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Glenn Hopkins
Principal Research Engineer, Georgia Tech Research Institute: GTRI Fellow and Chief Engineer of the Antenna Systems Division of the GTRI Sensors and Electromagnetic Applications Laboratory, specializing in array antenna technologies. Interests include phased arrays, wide bandwidth antennas, digital beam forming and RF subsystems.
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James Hoffman
Vice President of Engineering, Kinemetrics: Quite possibly the only person on LinkedIn who isn’t a “results-orientated team player with excellent interpersonal skills.”
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3.01 Phased Array Antenna Systems and Beamforming Technologies
Included are active power combining, thermal management, phasing networks, integration, power, test and evaluation and beamsteering, algorithm development and associated hardware implementations, and modeling and simulation for all levels of phased array development and beamsteering.
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Glenn Hopkins
Principal Research Engineer, Georgia Tech Research Institute: GTRI Fellow and Chief Engineer of the Antenna Systems Division of the GTRI Sensors and Electromagnetic Applications Laboratory, specializing in array antenna technologies. Interests include phased arrays, wide bandwidth antennas, digital beam forming and RF subsystems.
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3.02 Ground and Space Antenna Technologies and Systems
Topics on all aspects of antenna systems associated with space-based sensors or communications. Systems include ground based terminals, ground-to-space and space-to-space data links, and radar sensors. Antenna technologies include reflectors, lenses, feeds, arrays, and the transmit/receive subsystems associated with the antenna(s).
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James Hoffman
Vice President of Engineering, Kinemetrics: Quite possibly the only person on LinkedIn who isn’t a “results-orientated team player with excellent interpersonal skills.”
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Thomas Williamson
Research Engineer, Georgia Tech Research Institute: Thomas G. Williamson (Member, IEEE) was born in Roanoke, VA, USA. He received the B.S. degree (Hons.) and M.S. degree in electrical engineering from North Carolina State University, Raleigh, NC, USA, in 2018 and 2019, respectively. He is currently a Research Engineer at Georgia Tech Research Institute, Atlanta, USA. He is in the Antenna Systems Division of the Sensors and Electromagnetic Applications Laboratory, where he works on bespoke antenna designs, modern active electronically scanned arrays, radars, and digital beamforming systems. His research interests also include RF and mmWave circuits and phase change materials.
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3.03 RF/Microwave Systems
Papers about RF and microwave systems or components, passive and active, including radar systems.
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James Hoffman
Vice President of Engineering, Kinemetrics: Quite possibly the only person on LinkedIn who isn’t a “results-orientated team player with excellent interpersonal skills.”
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Christopher Edmonds
Senior Research Engineer, Georgia Tech Research Institute: Dr. Christopher Edmonds is a Senior Research Engineer in the Sensors and Electromagnetic Applications Laboratory at the Georgia Tech Research Institute (GTRI). He is involved in RF and system design and measurements. His prior experience includes RF and optoelectronic circuit design while working for Scientific Atlanta and Panasonic. He was also a technical support engineer, application engineer, and technical consultant for Keysight Technologies solving problems using the Advanced Design System (ADS), Genesys, and SystemVue software tools. Dr. Edmonds earned a Bachelor's (1996) and Master’s (1999) degree in Electrical and Computer Engineering as well as a Ph.D. in Bioengineering (2013), all from the Georgia Institute of Technology.
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3.04 Radio Astronomy and Radio Science
Papers on the techniques, hardware, systems, and results in the fields of Radio Astronomy and Radio Science.
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Mark Bentum
Professor, Eindhoven University of Technology: Mark Bentum received his MSc and PhD degree in electrical engineering from the University of Twente, Enschede, The Netherlands, in 1991 and 1995. In 1996 he joined the Netherlands Foundation for Research in Astronomy (ASTRON). He was in various positions at ASTRON. In 2005 he was involved in the eSMA project in Hawaii to correlate the Dutch JCMT mm-telescope with the Submillimeter Array (SMA) of Harvard University. From 2005 to 2008 he was responsible for the construction of the first software radio telescope in the world, LOFAR (Low Frequency Array). In 2008 he became an Associate Professor in the Telecommunication Engineering Group at the University of Twente. In 2017 he became a full Professor at the Eindhoven University of Technology. He is now involved with research and education in radio science. Since 2023 he is the Dean of the Electrical Engineering faculty at Eindhoven University of Technology.
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Melissa Soriano
Payload Systems Engineer, Jet Propulsion Laboratory: Melissa Soriano is a telecom systems engineer in the Flight Communications Section at the Jet Propulsion Laboratory. She developed real-time and high-performance software for over a decade for the Deep Space Network, including open loop receivers used for radio science and radio astronomy. Melissa specializes in telecom, especially challenging scenarios with low signal strength and high dynamics. She is currently the lead Telecom systems engineer on the Europa Clipper Flight Systems Engineering Team and the X-band Telecom systems engineering lead on the Mars Sample Retrieval Lander Mission. She has a BS from Caltech (double major in Electrical and Computer Engineering and Business Economics and Management) and an MS from George Mason University.
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This track focuses on missions, systems, and technologies for small spacecraft, which includes CubeSats, “ESPA-class” spacecraft (generally less than approximately 250 kilograms mass), and more unique small spacecraft (e.g. rovers, helicopters, etc.). In addition, this track seeks papers which focus on mission, systems, and technologies which are lower cost compared to typical large space programs, including educational and university submissions. This track also seeks submissions from commercial industry with innovative products and opportunities. Submissions are also sought regarding distributed systems (swarms, constellations, etc.).
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Alex Austin
Systems Engineer, Jet Propulsion Laboratory: Alex Austin is a Systems Engineer in the Advanced Design Engineering group at JPL. He is the Flight System Systems Engineer for the INCUS mission, as well as the Lead Engineer for Team Xc, JPL’s formulation team for CubeSat and SmallSat missions. He received a bachelor’s degree in Aeronautical and Mechanical Engineering and a master’s in Aeronautical Engineering from Rensselaer Polytechnic Institute.
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Catherine Venturini
Principal Engineer, The Aerospace Corporation: Catherine Venturini is a Principal Engineer in the Office of the Chief Technology Officer at The Aerospace Corporation. Focus areas include space mission architectures, mission concept development, and small satellite mission capabilities and technology advancements. Catherine has over 18 years of experience in the CubeSats and smallsat community. Her past work includes involvement in the development and operations of 5 Aerospace CubeSat missions, and currently is the PI for the Disksat mission. She leads numerous studies related to small satellite technical trends, mission concepts and capabilities, and new approaches to mission success.
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5.01 Small, Low-Cost Missions in Development and Operations for Space and Earth Exploration
This session will explore the use of small spacecraft and other low-cost implementations to enable new, exciting missions for space exploration. The session will focus on SmallSat and low-cost missions in development and operations and how form factor or other novel approaches can reduce cost and affect the mission.
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Young Lee
Technical Group Supervisor and Project Support Lead, Jet Propulsion Laboratory: Ms. Young Lee is the Advanced Design Engineering Technical Group Supervisor and Project Support Lead in the Project Systems Engineering and Formulation Section in the Jet Propulsion Laboratory. She is a member of the NASA’s Small Satellite Coordination Group (SSCG), representing JPL. Over the last 15 years, she has held many diverse leadership positions in NASA programs and projects establishing strategic and collaborative working relationships across many organizations within NASA, including its domestic and international partners. In addition, she has over twenty years of experience in the development and deployment of operations systems for deep space missions, focusing on operations cost reduction, user-productivity improvements and increased information throughput to support many NASA deep space missions. She has M.S. in Management of Information Systems from Claremont Graduate University in California.
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Benjamin Donitz
Systems Engineer, NASA Jet Propulsion Laboratory: Benjamin Donitz received his Bachelor and Masters degrees in Aerospace and Space Engineering, respectively, from The University of Michigan. He now works at the Jet Propulsion Laboratory in the Project System Engineering and Formulation section where he is involved with the development of early-phase mission concepts. Since joining JPL in 2019, Benjamin has worked on several mission concepts and studies evaluating the feasibility of sending dedicated spacecraft to interstellar objects and long period comets. Benjamin now supports the Investigation of Convective Updrafts (INCUS), a NASA Earth Science mission, on the Project Systems Engineer team.
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Lee Jasper
System Engineer , Space Dynamics Laboratory : Lee Jasper received his B.S./M.S. and Ph.D. degrees in aerospace engineering from CU Boulder. He currently works for the Space Dynamics Laboratory as a Systems Engineer supporting the Air Force Research Laboratory. Lee has worked on many small satellite (including CubeSat) missions as well as the large Earth science mission NISAR managed by JPL-CalTech. His research/work has included orbital debris, controls, astrodynamics, small satellites, aggregating new and existing capabilities into relevant missions, mission assurance, spacecraft autonomy, and workforce development.
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5.02 Future Small, Low-Cost Mission Concepts
This session is focused on small mission concepts and missions in formulation. Missions in all areas of space exploration are welcome, including Earth science, planetary science, astrophysics, and heliophysics.
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Young Lee
Technical Group Supervisor and Project Support Lead, Jet Propulsion Laboratory: Ms. Young Lee is the Advanced Design Engineering Technical Group Supervisor and Project Support Lead in the Project Systems Engineering and Formulation Section in the Jet Propulsion Laboratory. She is a member of the NASA’s Small Satellite Coordination Group (SSCG), representing JPL. Over the last 15 years, she has held many diverse leadership positions in NASA programs and projects establishing strategic and collaborative working relationships across many organizations within NASA, including its domestic and international partners. In addition, she has over twenty years of experience in the development and deployment of operations systems for deep space missions, focusing on operations cost reduction, user-productivity improvements and increased information throughput to support many NASA deep space missions. She has M.S. in Management of Information Systems from Claremont Graduate University in California.
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Dexter Becklund
Engineering Manager, The Aerospace Corporation: Engineering manager working at Aerospace Corporation for just over 5 years. Worked in a variety of related fields ranging from market and industry research on smallsat technologies, developing and testing prototype CubeSat technology and understanding commercial industry bus capabilities. Now focusing largely on developing and leading efforts within Aerospace to build up digital twins and simulations of smallsat vehicles.
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5.03 Applications for Distributed Systems of Small Spacecraft
This session focuses on distributed systems, swarms, networks, and constellations of small spacecraft, enabling low-cost missions while unlocking new capabilities and scientific opportunities. Advances in miniaturization and launch accessibility have fueled the rise of modular distributed architectures, such as fractionated systems, that transform space operations. We invite contributions on the design, coordination, and application of these modular systems for Earth observation, space weather monitoring, formation flying, inter-satellite communications, space domain awareness, and deep-space exploration. Key topics include guidance, navigation, and control (GNC), onboard autonomy, AI/ML-driven collaborative decision-making, and scalable resource sharing. The focus is on addressing the challenges of modular system-level design, resilience, and performance in contested or constrained environments. Researchers and mission planners are invited to contribute theoretical insights, flight tests, and practical concepts that demonstrate the way in which modular distributed small spacecraft systems facilitate flexible, scalable, and resilient missions and transform the future space exploration and technology.
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Ryan Woolley
Mission Design Engineer, Jet Propulsion Laboratory: Ryan Woolley is a mission design engineer in the Inner Planet Mission Analysis group at JPL. His focus has primarily been on early mission formulation for the Mars Exploration Program. This includes mission concept studies, systems engineering, propulsion systems, low-thrust trajectories and optimization, mission design tools, and launch vehicle performance. He has worked on nearly all aspects of the Mars Sample Return campaign and has recently begun focusing on small missions to Mars. He received a B.S. in Physics-Astronomy from Brigham Young University, an M.S. in Astronautical Engineering from the University of Southern California, and a Ph.D. in Aerospace Engineering from the University of Colorado. He has been at JPL since 2005.
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Ashwati Das-Stuart
Navigation Engineer, NASA Jet Propulsion Lab: Dr. Ashwati Das-Stuart is a member of the Mission Design and Navigation Section at JPL working on both the NISAR and Europa Clipper missions. She is also the lead Systems Engineer for the United States Greenhouse Gas Center project. Her experience includes systems engineering, software architecting and automation, as well as mission design and navigation. She has also gained a wide array of insights from working in early formulation concept studies to operations. Prior to JPL, she graduated with a Ph.D. focused on artificial intelligence-aided trajectory design in multi-body systems from Purdue University. She loves engaging in outreach efforts to inspire the next generation to join the space journey.
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Rachit Bhatia
Space Research Scientist, West Virginia University: Dr. Rachit Bhatia is a Space Research Scientist at the Mechanical and Aerospace Engineering Department in the West Virginia University. Dr. Bhatia has an extensive experience in designing, developing, and testing mathematically intensive software applications related to space safety and space operations, with special focus on topic like state-estimation, stochastic processes, maneuver detection, and collision probability analysis. In his current role, he performs and leads technical research, mentor early-career researchers, and helps to develop & modify mathematical models for relevant areas, including space weather, space operations, space domain awareness (SDA), and orbit prediction. He holds a Ph.D. in Aerospace Engineering from Utah State University (Logan). He has previously served in the role of Space Safety Analytics and Research Lead at the LeoLabs and as an astrodynamics technical expert at SpaceNav and Aquarian Space. His other research interests include optimal estimation theory, autonomous spacecraft navigation, and control system design. Dr. Bhatia is an innovative aerospace engineer with a robust background & 9 years of experience in R&D, committed to continuous learning, teaching, & conceptual development for organizational success.
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5.04 Lessons Learned from Small Spacecraft Missions
The past decade has seen major advancements in the development and demonstration of CubeSat and SmallSat technologies and missions. There are many issues and challenges to flying CubeSats and SmallSats successfully, including performance, cost, risk, reliability, fault tolerance, thermal management, radiation hardness, and mission lifetime. University involvement in CubeSat and SmallSat development has provided an excellent training ground for future spacecraft developers. CubeSat and SmallSat technology demonstrations have been experimental and operational. CubeSat and SmallSat technology and mission developments and demonstrations have experienced total successes, partial successes, and, undoubtedly, a few failures. Each success and failure provide opportunities to learn. The objective of this session is to allow CubeSat and SmallSat developers to share their lessons learned, both good and bad, with the CubeSat and SmallSat community.
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Michael Swartwout
Professor, Saint Louis University: Michael Swartwout is a professor of aerospace engineering at Saint Louis University. His research focuses on systems and models for improving mission assurance for small spacecraft. He earned his BS and MS in aerospace engineering from the University of Illinois, and his PhD in aeronautics & astronautics from Stanford. While at Stanford, he was the manager of the Sapphire satellite, launched in 2001. At SLU, his students have several CubeSats in development for NASA-sponsored launches: COPPER (2013), Argus (2015), Argus-2 (2019), DARLA (2025), DARLA-02 (2026)
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Bruce Yost
Director, S3VI, NASA - Ames Research Center: Bruce Yost is currently the NASA Director of the Small Spacecraft Systems Virtual Institute (S3VI), funded by the NASA Space Technology Mission Directorate (STMD). Prior to that, he was the Program Manager for the Small Spacecraft Technology Program within the STMD. He began his aerospace career working on the Space Shuttle at Kennedy Space Center, and also worked at NASA HQs prior to moving to Ames Research Center. Bruce has worked on a number of Shuttle, ISS, and more recently, smallsat missions and programs for over 30 years.
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John Samson
Research Affiliate / Aerospace Consultantant, Morehead State University : Dr. Samson has 50+ years experience in onboard processing for space and airborne applications. More than 50 publications in the area of onboard processing systems and architectures. Senior Member IEEE, Associate Fellow AIAA. Graduate of Illinois Institute of Technology, Massachusetts Institute of Technology, and the University of South Florida.
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5.05 Small Missions for Workforce Development and Education
The purpose of this session is to highlight the use of Smallsat missions for workforce development/education. While examples of undergraduate education programs that leverage Smallsats are welcome, this session has a particular emphasis on the use of these systems for professional workforce development as well as the training of graduate researchers. We invite papers covering individual missions (past, present, future) as well as workforce development programs at an institution or company.
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Michael Swartwout
Professor, Saint Louis University: Michael Swartwout is a professor of aerospace engineering at Saint Louis University. His research focuses on systems and models for improving mission assurance for small spacecraft. He earned his BS and MS in aerospace engineering from the University of Illinois, and his PhD in aeronautics & astronautics from Stanford. While at Stanford, he was the manager of the Sapphire satellite, launched in 2001. At SLU, his students have several CubeSats in development for NASA-sponsored launches: COPPER (2013), Argus (2015), Argus-2 (2019), DARLA (2025), DARLA-02 (2026)
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Jin S. Kang
Associate Professor, U.S. Naval Academy: Dr. Jin S. Kang is an Associate Professor in the Aerospace Engineering Department at the United States Naval Academy, and serves as the Director of the Naval Academy Small Satellite Program. His main research area is in small satellite technology development and was involved in development of four micro-satellites and numerous CubeSat satellites. He received his B.S. from the University of Michigan, M.S. from Stanford University, and Ph.D. from Korea Aerospace University (KAU) in Aerospace Engineering. After working for General Electric for two years, Kang taught at Korea Air Force Academy, KAU, and Drexel University before joining the Naval Academy faculty.
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5.06 Instruments and Payloads for Small, Low-Cost Missions
Instruments and payloads for small, low-cost missions bring unique challenges, yet can offer unique opportunities. These opportunities range from the delivery of novel science data to meeting new business cases to delivering capabilities at great scale. This Session is focused on all types of instruments and payloads for small, low-cost missions and the benefits they can deliver.
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Michael O'Connor
, United States Space Force: Michael O'Connor's professional experience ranges from space systems to aircraft flight test. His previous research has focused on the intersection of autonomy, commercial space, and national security. He currently supports the development of U.S. Government space systems.
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Rashmi Shah
Technical Group Supervisor for Water and Ecosystems, Jet Propulsion Laboratory/California Institute of Technology: Interests include technology development, Small Satellites implementation, early concept developments, and science system engineering. Research expertise are in the area of microwave remote sensing, electromagnetic scattering, remote sensing using signals of opportunity reflectometry and microwave remote sensing instrument development.
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Laila Kazemi
ADCS R&D Engineer , arcsec : Laila Kazemi holds a Doctorate, a Master of Applied Science, and a Bachelor of Aerospace Engineering from Toronto Metropolitan University. She has over 10 years of experience working on small satellite components. As part of her graduate studies, she worked on the ST-16RT star tracker and is credited as a co-inventor. She has contributed to small satellite component research through multiple publications. She currently holds the position of ADCS R&D Engineer at arcsec, where she contributes to star tracker algorithm development, fully integrated ADCS subsystem design, and the space situational awareness and defense domain. Her current project, DeDUST, focuses on the opportunistic detection of space debris through star trackers. The increasing computational capabilities of star tracker microcontrollers, coupled with their integration into the majority of spacecraft buses, present an opportunity to incorporate additional functionality. DeDUST will enable platforms to contribute to clean space guidelines at no extra operational cost or hardware. She is also a key personnel member for the development of a modular, fully integrated ADCS subsystem for nanosats, designed to meet the increasing performance demands and strict timelines of the current smallsat market. The Arcus ADCS will be developed under a GST program and ESA supervision.
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5.07 Technologies for Small, Low-Cost Missions
This session seeks papers covering technologies, systems, and RF components for very small spacecraft (secondary platforms such as CubeSat, ESPA and ASAP-class) that enable "big" science and technology missions on a small budget. Papers that evaluate flight or testing results are strongly encouraged.
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John Dickinson
Manager, Research & Development, Radiation Effects & Mission Sciences, Sandia National Laboratories: Managing $45M research investment in radiation effects assessment for state-of-the-art digital microelectronics. Experience in spacecraft & payload systems engineering and avionics design & test on Kepler, WISE, JUNO, IBEX, RBSP, MMS, SPP, Solar Orbiter, CYGNSS, and multiple government programs. BSEE, Johns Hopkins University; MSEE, Georgia Institute of Technology.
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Dimitris Anagnostou
Associate Professor, Heriot Watt University: Dimitris E. Anagnostou received the BSEE degree from the Democritus University of Thrace, Greece, in 2000, and the MSEE and PhD from the University of New Mexico in 2002 and 2005, respectively. From 2005 to 2006, he was a Post-Doc at Georgia Tech. In 2007, he joined the ECE Department, South Dakota School of Mines and Technology, where he was promoted to Associate Professor with tenure. He is currently Associate Professor at Heriot Watt University, in Edinburgh, UK. His interests include reconfigurable antennas and arrays for space and wearable applications, RADAR, and wireless vital sign monitoring. Dr. Anagnostou is a recipient of the DARPA Young Faculty Award, the IEEE John Kraus Antenna Award, and is currently supported by the H2020 Marie Curie Individual Fellowship. He is past Associate Editor for IEEE Transactions on Antennas and Propagation.
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Michael Mclelland
Vice President, Space Systems Division, Southwest Research Institute: Michael McLelland leads Southwest Research Institute’s Space Systems Division, which develops next-generation space missions, systems and enabling technologies to support fundamental space science, national security and commercial applications. Mr. McLelland has over 32 years engineering and management expertise in spacecraft constellations, small satellites, spacecraft avionics, power systems, science payloads and autonomous high-altitude airships. He has played key roles in the development of over 28 spaceflight systems.
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5.08 Small Satellite Manufacturing, Production, Integration and Test at Scale
The rapid advancement and increasing demand for small satellites have revolutionized the space industry, presenting unique manufacturing opportunities and challenges. This session will delve into the critical aspects of small satellite production, exploring the intricate balance between innovation, cost, and efficiency. Key topics could include: Technological Innovations, Cost Management, Supply Chain Coordination, Scalability, Standardization, Test Practices, Mission Assurance & Quality Assurance Practices, and Sustainability Practices.
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Kara O'Donnell
General Manager, Aerospace Corporation: General Manager for the Imagery Programs Division at the Aerospace Corporation, providing world class technical support in the areas of adaptive mission assurance, technology planning, development, and test & demonstration.
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Nicole Fondse
Systems Director, Aerospace Corporation: Nicole Fondse earned her B. S. in Electrical Engineering and B. S. in Biomedical Engineering from CSU Long Beach in 2005. Upon graduation she joined Northrop Grumman Space Technology. She then earned her M. S. in Systems Engineering and MBA from Loyola Marymount University in 2011. In 2020, Mrs. Fondse transitioned to The Aerospace Corporation where she leads a team supporting the DoD Space Test Program whose responsibility is to provide access to space for military relevant science and technology experiments.
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This track presents avionics, electronics, and ground systems for space applications. All spacecraft electrical systems and subsystems are topical. Designs in the notional, active development, or implemented phase are covered. Sessions cover high performance computing, peripheral electronics, guidance, navigation, and control (GNC) technologies, and power electronics as implemented in a resilient manner and adapted for the extreme space environment for all sizes of spacecraft.
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John Dickinson
Manager, Research & Development, Radiation Effects & Mission Sciences, Sandia National Laboratories: Managing $45M research investment in radiation effects assessment for state-of-the-art digital microelectronics. Experience in spacecraft & payload systems engineering and avionics design & test on Kepler, WISE, JUNO, IBEX, RBSP, MMS, SPP, Solar Orbiter, CYGNSS, and multiple government programs. BSEE, Johns Hopkins University; MSEE, Georgia Institute of Technology.
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Patrick Phelan
Sr. Manager - R&D, Southwest Research Institute: Patrick T. Phelan is a Sr. Manager at Southwest Research Institute (SwRI) in San Antonio, TX, USA in the Space Systems Division. He received a B.S. in Computer Engineering in 2005 and a M.S. in Electrical Engineering in 2006, both from the Georgia Institute of Technology. He has been with SwRI for almost twenty years serving in a variety of roles with growing responsibility on space programs. Most recently, he is serving as a project manager for a DoD technology demonstration program as well as a pair of NASA programs.
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7.01 High Performance Computing and On-Board Data Processing for Space Applications
Explore innovations and new developments in spacecraft on-board and embedded computing architectures for GEO, MEO and LEO missions . Example hardware topics: processors, data handling and companion processing ASICs and FPGAs, multicore processing architectures, application of soft-core embedded FPGA processors, emerging GPU technologies for space-based applications, on-orbit reconfiguration, and new or applied standards for embedded space electronics applications. Example software topics: machine learning techniques, embedded cluster computing, on-board big data analytics, power-aware optimal reconfiguration algorithms, reconfigurable software-implemented hardware fault tolerance algorithms and designs, evolutionary platforms, and autonomous computing designs. Papers should address, as applicable: processing performance, size-weight-power (SWaP) comparisons of different components and architectures, standardized form factors, protocols and interfaces, radiation hardness by design, process, or technology, mitigation of other spacecraft environmental factors, software support, and integration and test of elements. Descriptions and performance of actual development, test, flight, or mission usage are highly sought.
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Jamal Haque
Chief Satellite Architect/ LM Fellow, Lockheed Martin Space Systems Company: Dr. Haque is a Chief Satellite Architect and LM Fellow at Lockheed Space Communications, where he leads the various solutions for satellite applications. Dr. Haque's experiences and interests are LOS, BLOS, and NLOS communication systems across terrestrial and non- terrestrial applications, i.e., satellites, 5G/6G etc. In particular he has focused on waveforms for highspeed mobile platforms, channel estimation, cognitive software defined radio, signal processing, channel coding, high-speed connectivity, channelizer and robust space processing systems and architectures. He has worked at advance development groups at AT&T ( Bell Labs), Rockwell, Lucent (Bell Labs) technology, Honeywell and Raytheon Space. He brings wealth of knowledge in research, system design, system engineering, program management, leadership and Product leadership. As a Sr Manager Product Leader he was responsible for P&L, and also led M&A . As Tech. Director at RTX, he was responsible of all technology road maps, IR&D allocation and management of RTX business unit. His dissertation is focused on OFDM based system for aerial platforms. He has 16 publications and has been awarded 33 US patents.
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Robert Merl
Electrical Engineer, Los Alamos National Laboratory: Robert Merl received a B.S. in Electrical Engineering from State University of New York at Stony Brook in 1992 and an M.S. in Electrical Engineering from the Illinois Institute of Technology in Chicago in 1996. He has been with Los Alamos National Laboratory for 19 years and was previously with Argonne National Laboratory. Rob is the project engineer for the Processing and Communication team in the Intelligence and Space Research Division at Los Alamos National Laboratory. He is also the principal design engineer for several space flight modules currently under development at the laboratory. Rob has 26 years of experience in circuit design. Rob is an instrument rated pilot and a commercial drone pilot.
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7.02 Peripheral Electronics, Data Handling, and Interconnects for Space Applications
This session explores novel concepts for hardware and software technologies that support but are peripheral to the main computing core. Example topics include: novel instrument or payload hardware and software technologies; network connections architectures; high speed interconnects; mixed signal and systems-on-a-chip technologies; onboard signal, data, and command processing; telecommand reception, decoding, and distribution; payload data pre-processing; dedicated accelerators for data processing; transmission and storage (e.g. compression, encoding, parallel processing for payloads (GIPs, GFLOPs), etc.); fault-tolerance mechanisms; autonomous operations, reconfigurable approaches, and failsafe strategies; emerging and novel designs and tests for high performance embedded computing platforms; temporal and spatial reuse of systems' resources; sensor, detector, and imager readout circuits; high resolution/ high speed ADCs and DACs; resource efficient (mass/ volume ) miniaturized multi-channel/ parallel systems; circuit designs for analog and digital processing functions; and designs for integrated communications systems applications on a chip.
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Patrick Phelan
Sr. Manager - R&D, Southwest Research Institute: Patrick T. Phelan is a Sr. Manager at Southwest Research Institute (SwRI) in San Antonio, TX, USA in the Space Systems Division. He received a B.S. in Computer Engineering in 2005 and a M.S. in Electrical Engineering in 2006, both from the Georgia Institute of Technology. He has been with SwRI for almost twenty years serving in a variety of roles with growing responsibility on space programs. Most recently, he is serving as a project manager for a DoD technology demonstration program as well as a pair of NASA programs.
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Michael Epperly
Senior Program Manager, Southwest Research Institute: Senior Program Manager, Space Systems Department, Southwest Research Institute. Manager, Memory Subsystems product line and Program Manager for the Space Force APS-R Spacecraft. BSEE, University of Texas; MSEE, MSCS, and MS in Systems Engineering/Program Management, Johns-Hopkins University.
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Mark Post
Senior Lecturer, University of York: Mark A. Post received his B.A.Sc. in electrical engineering from the University of Toronto in 2004, and his M.Sc. in ultrasonic material analysis and Ph.D. in space robotics from York University, Canada in 2008 and 2014 respectively. His research focuses on development of modular, adaptable, and autonomous systems, robots and vehicles for challenging environments and has developed a multitude of highly-integrated self-* systems that allow intelligent and efficient autonomy. From 2014-2018 he was a Lecturer at the University of Strathclyde. He joined the University of York in January 2019 and is now a Senior Lecturer in the School of Physics, Engineering and Technology Intelligent Systems and Robotics group. His research interests and experience include machine vision for navigation and recognition, autonomous control, sensor data fusion and mapping methods, semantic probabilistic learning and reasoning methods and reliable and efficient bio-inspired mechatronic architectures for robots.
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7.03 Assembly, Integration, and Test for Electrical Space Systems
This session explores all aspects of assembly, integration, and test of electrical space systems. This includes assembly, integration, and test efforts at the board-level for RF, analog, or digital card assemblies; box-level for command, telemetry, data handling, data processing, control, power, or mixed-purpose avionics; subsystem-level for instruments/payloads; or system-level for entire spacecraft electrical subsystems. Papers can address innovative uses of test software, test scripts, mission simulation, human-computer interface, electrical support ground equipment, and harnessing to accomplish integration and test. Papers also address unique system engineering and configuration control approaches to manage test, and transition from system test to launch and mission operations.
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Eric Bradley
Computer Engineer, Naval Research Lab: Eric Bradley works as a program manager for the Naval Center for Space Technology (NCST) at the Naval Research Laboratory (NRL). Eric has experience in the development of experimental space systems in technology areas ranging from propulsion to communications to remote sensing. He has led teams through all phases of the space system development lifecycle including requirements definition, design, implementation, test, launch, and on-orbit operations. Eric’s technical focus area is on all aspects of electrical system integration and testing from avionics to software to entire spacecraft.
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Eric Rossland
Electronics Engineer, Naval Research Laboratory: Eric Rossland is an employee at the Naval Research Laboratory (NRL) with over 20 years experience in spacecraft systems engineering. Eric works in the spacecraft systems electrical integration and test section on efforts from robotics, to space sensors, to entire spacecraft, and mission operations. Eric’s most recent technical focus area is space robotics, specifically robotic arm system design, integration, and test. On multiple flight programs, Eric managed teams through the entirety of the project from requirements development, design, hardware and software implementation, integration and test, verification/validation, and spacecraft launch and on-orbit operations. As a subject matter expert in the field of spacecraft electrical and robotic systems integration and test, Eric has been consulted to support internal and external program design reviews.
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7.05 Electronics for Extreme Environments
This session explores innovations in electronics technologies and packaging that help enable operation of electronics in extreme environments, including space. Technologies resilient to extremes in temperature, radiation, and launch vehicle environments are relevant. Example topics include: materials and techniques for assembling and testing microelectronics; component packaging, attachment, and connectors; thermal/mechanical/electrical/radiation performance comparisons; reliability and failure analyses; adaptation of manufacturing methods for space applications; and integration of diverse modules such as MEMS, power electronics, sensors, optics, RF and microprocessors.
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Mohammad Mojarradi
Manger, Componnent Engineering and Assurance, Jet Propulsion Laboratory: Manager, Component Engineering and Assurance, JPL. IC design specialist, expert in mixed-signal/mixed-voltage circuits, sensors, micro-machined electromechanical interface systems for extreme environment of space. Twenty years experience. Twenty-seven patents, forty publications.
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7.06 Fault Tolerance, Autonomy, and Evolvability in Spacecraft and Instrument Avionics
This session explores adaptation, including Fault Tolerance, Autonomy, and Evolvability, in space electronics. Adaptation reflects the capability of a system to maintain or improve its performance in the presence of internal or external changes, such as faults and degradations, uncertainties and variations during fabrication, modifications in the operational environment, or incidental interference. This session addresses all aspects of adaptivity for spacecraft and instrument avionics with the scope of papers encompassing theoretical considerations, design solutions, and actual techniques applied to space flight operations.
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Didier Keymeulen
Principal, Member Technical Staff, Jet Propulsion Laboratory: Principal, Member technical staff, JPL. Interests in design and implementation of adaptive and intelligent embedded flight systems
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Neil Dahya
Manager, GRACE-C Flight System, NASA Jet Propulsion Laboratory: Neil T. Dahya is the Flight System Manager for the GRACE-C Mission. In his 18 years at JPL and 28 years in the aerospace industry Neil has served as the Deputy Flight System Manager for the Psyche Project, the Project Systems Engineer (PSE) on the GRACE Follow-On Mission, flight systems engineer on the GRAIL mission and delivered hardware for the Mars Curiosity Mission. Prior to work atJPL Neil has supported Orbital Space Plane development under NASA contract, been lead mechanical and ATLO Mechanical Lead for the GALEX mission at Orbital Sciences, supported the SMAP probe at Goddard Spaceflight Center and has supported shuttle payload missions. Neil received a B.S. in Mechanical engineering from the University of Delaware in 1995.
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7.07 Guidance, Navigation, and Control Technologies for Space Applications
This session explores sensor, actuator, algorithm and processing innovations related to the guidance, navigation, and control of space vehicles. This session welcomes manuscripts that discuss technologies applicable to satellites, probes, landers, launchers, and other space-related missions.
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Leena Singh
Senior Staff, MIT Lincoln Laboratory: Leena Singh is a Guidance, Navigation and Control Systems engineer with experience in the autonomous GN&C of space, missile, and planetary reentry & landing bodies. She presently holds a Senior Technical Staff position in Control and Autonomous Systems Engineering at MIT Lincoln Laboratory. She has previously worked at Draper Laboratory holding various positions providing GN&C expertise in the area of single spacecraft operations, formation control of spacecraft clusters, and in the rendezvous and proximity operations of spacecraft approaching for docking. Leena Singh has been a member of the IEEE and the AIAA for over 20 years and is a Fellow of the AIAA.
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Matthew Lashley
Senior Research Engineer, GTRI: Dr. Matthew Lashley is a Senior Research Engineer in the Air & Missile Defense Division (AMDD) of the Sensors and Electromagnetic Applications Laboratory (SEAL) at Georgia Tech Research Institute (GTRI). He received his bachelor’s, master’s, and doctoral degrees from Auburn University in 2004, 2006, & 2009. His research background is in the area of vector tracking algorithms for GPS receivers and the deep integration of GPS and inertial measurement units. He joined GTRI in 2015 and has since worked in the areas of radar interferometry, target tracking, and GPS-denied navigation.
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John Enright
Professor, Toronto Metropolitan University: John Enright is a Professor in Department of Aerospace Engineering at Toronto Metropolitan University (formerly Ryerson University). His primary research interests concern the development of attitude sensors for spacecraft, optical navigation, and mobile robotics.
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7.08 Emerging Technologies for Space Applications
This session explores a wide range of advanced, novel, and cutting edge device technologies for space applications. Example topics include: advanced MEMS devices; 3D circuit printing; innovative embedded electronics applications (including multi-functional components); as well as the leveraging of advanced commercial electronics for space applications. This session also serves as a catch-all for unique advanced technology topics that do not fit cleanly into other sessions or are inherently multi-disciplinary in nature.
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William Jackson
Senior Scientist, L3Harris Technologies: Senior Scientist, L3Harris Technologies. Spacecraft systems engineer for various small satellite programs. Expertise in systems engineering, mission analysis and operations, mathematical modeling and optimization, and spacecraft design. Senior member of IEEE, and Associate Fellow of AIAA.
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Michael Mclelland
Vice President, Space Systems Division, Southwest Research Institute: Michael McLelland leads Southwest Research Institute’s Space Systems Division, which develops next-generation space missions, systems and enabling technologies to support fundamental space science, national security and commercial applications. Mr. McLelland has over 32 years engineering and management expertise in spacecraft constellations, small satellites, spacecraft avionics, power systems, science payloads and autonomous high-altitude airships. He has played key roles in the development of over 28 spaceflight systems.
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7.09 COTS Utilization for Reliable Space Applications
This session explores the use of commercial, off-the-shelf electronics and technologies in a space environment. Using commercial electronics not intended for an application in a space environment is becoming increasingly common. Topics of interest include: adaptations of COTS electronics for fault tolerance and environmental resilience; flight proven COTS electronics; novel implementations of electrical functions using COTS components; and results of COTS component use. Papers address theoretical considerations, design solutions, and actual techniques applied to space flight operations.
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Douglas Carssow
Electronics Engineer, Naval Research Laboratory: Dr. Douglas Carssow is the Naval Center for Space Technology Digital Flight Systems section head. He earned his Ph.D. in Electrical Engineering from Boston University in 2010. He is a former Naval Research Laboratory Karle’s Fellow and has 18 years of space hardware experience. He is currently working on algorithms for on-orbit maritime situational awareness.
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Matthew Spear
Electronics Engineer, Air Force Research Laboratory: Matthew got his PhD in Electrical Engineering from ASU in 2024. His research focused on radiation effects and neuromorphic devices. Now at the Air Force Research Lab, he works in the FORTRESS lab leading radiation testing. His in-house research projects focus on novel devices. Supports a wide range of testing on parts for space applications.
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Track 9 .Air Vehicle Systems and Technologies for Piloted, Remotely Piloted, or UAS Atmospheric Platforms
The Air Vehicle Track is open to any atmospheric vehicle concept ranging from fixed wing, rotary wing, propulsive and buoyant lift applications for Earth-based or other Planetary Atmospheric application (atmospheric referring to the envelope of gases that surrounds any planet or dwarf planets or moons within or outside the solar system). The track houses sessions focused on atmospheric flight applications for piloted, remotely piloted, and autonomous Un-piloted Aerial Systems (UAS) platforms including any aerial vehicle(s). The Air Vehicle Systems and Technologies Track includes five sessions categorized to focus on development, technologies, and innovations in (i) Modeling, Simulation, Flight Testing, and Verification & Validation (V&V); (ii) Autonomy and Artificial Intelligence for Atmospheric Platforms; (iii) Integrated Systems, Sensors, Safety-Critical Hardware, and Avionics; (iv) Air Vehicle Flight Guidance, Navigation, and Control Theory and Application; and (v) Distributed, Cooperative, and Multi-Vehicle GNC.
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Christopher Elliott
Principal Research Engineer, CMElliott Applied Science LLC: Christopher M Elliott is a Principal Research Engineer at CMElliott Applied Science LLC, a company that provides innovative solutions for challenges in engineering research and production. With over 25 years of experience in the aerospace industry including roles as a Lockheed Martin Aeronautics Technical Fellow in Flight Control and Vehicle Management Systems, Dr. Elliott has worked on a number of diverse research programs for the Lockheed Martin Skunk Works, such as the International Space Station, Block 60 F16, F35 Joint Strike Fighter, and Hybrid Airship. He is also an Adjunct Professor at Texas Christian University and the University of Texas at Arlington, where he teaches and mentors students in mechanical and aerospace engineering. He holds a PhD and an MS in Aerospace Engineering from UT Arlington, and a BS in Aerospace Engineering from UT Austin. He is an AIAA Associate Fellow and the Air Vehicle Chair for the annual IEEE Aerospace Conference and a passionate advocate for advancing the field of aerospace and mechanical engineering; guidance, navigation, and control; modeling, simulation, estimation, and optimization of dynamic systems; and quantum information science.
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Tom Mc Ateer
System of Systems Test and Evaluation, NAVAIR: Systems of Systems Test and Evaluation, Naval Air Warfare Center Aircraft Division, Patuxent River, MD.
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9.01 AV Physics, Modeling, and Simulation
This Air Vehicle (AV) session focuses on methodology and techniques for the governing physics, modeling and simulation of atmospheric vehicles including piloted, remotely piloted, and autonomous platforms including fixed wing, rotary wing, and any other aerial vehicle(s). The AV Physics, Modeling, and Simulation is open to any atmospheric vehicle concept including fixed wing, rotary wing, propulsive and buoyant lift applications for Earth-based or other Planetary Atmospheric GNC applications (atmospheric referring to the envelope of gases that surrounds any planet or dwarf planets or moons within or outside the solar system).
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Will Goins
Sr. Principal Electronics Engineer, Radiance Technologies : Sr. Principal Electronics Engineer with Ierus Technologies in Huntsville AL, USA. Previously he held research and design positions with commercial companies supporting aerospace and defense customers. His research interests are in aerospace and electronic systems areas, with specific focus in autonomous vehicles and sensors. He holds a B.S. and M.S. degrees in electrical engineering
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Richard Hoobler
Graduate Research Assistant, University of Texas at Austin: Richard Hoobler has a Bachelor's degree in Aerospace Engineering from Iowa State University and a Master's degree from UT Austin. He is currently working on his PhD at UT Austin under Dr. Maruthi Akella. His research interests are in Aircraft GNC, Adaptive Control, and System Identification.
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Christopher Elliott
Principal Research Engineer, CMElliott Applied Science LLC: Christopher M Elliott is a Principal Research Engineer at CMElliott Applied Science LLC, a company that provides innovative solutions for challenges in engineering research and production. With over 25 years of experience in the aerospace industry including roles as a Lockheed Martin Aeronautics Technical Fellow in Flight Control and Vehicle Management Systems, Dr. Elliott has worked on a number of diverse research programs for the Lockheed Martin Skunk Works, such as the International Space Station, Block 60 F16, F35 Joint Strike Fighter, and Hybrid Airship. He is also an Adjunct Professor at Texas Christian University and the University of Texas at Arlington, where he teaches and mentors students in mechanical and aerospace engineering. He holds a PhD and an MS in Aerospace Engineering from UT Arlington, and a BS in Aerospace Engineering from UT Austin. He is an AIAA Associate Fellow and the Air Vehicle Chair for the annual IEEE Aerospace Conference and a passionate advocate for advancing the field of aerospace and mechanical engineering; guidance, navigation, and control; modeling, simulation, estimation, and optimization of dynamic systems; and quantum information science.
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9.02 AV Autonomy, Artificial Intelligence, and Distributed Atmospheric Platforms
This session includes papers on all aspects of autonomy and artificial intelligence and machine learning for Air Vehicle (AV) applications including piloted, remotely piloted, and autonomous platforms in atmospheric flight. Example topics may include human and automony interaction; real time prognostics and integrity monitoring and mitigation; path planning in dynamic and uncertain environments; conflict detection and resolution; and work from experimental to operational applications. Other topics may range from resource allocation and command and control of complex, autonomous systems to self-organization and autonomous operation and decision making, or any AI augmented concepts with GNC for homogeneous or mixed types of a multi-vehicular distributed AV system.
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Will Goins
Sr. Principal Electronics Engineer, Radiance Technologies : Sr. Principal Electronics Engineer with Ierus Technologies in Huntsville AL, USA. Previously he held research and design positions with commercial companies supporting aerospace and defense customers. His research interests are in aerospace and electronic systems areas, with specific focus in autonomous vehicles and sensors. He holds a B.S. and M.S. degrees in electrical engineering
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Kerianne Hobbs
Aerospace Engineer, Air Force Research Laboratory: Dr. Kerianne Hobbs is the Safe Autonomy and Space Lead on the Autonomy Capability Team (ACT3) at the Air Force Research Laboratory. There she investigates rigorous specification, analysis, bounding, and intervention techniques to enable safe, trusted, ethical, and certifiable autonomous and learning controllers for aircraft and spacecraft applications. Her previous experience includes work in automatic collision avoidance and autonomy verification and validation research. Dr. Hobbs was selected for the 2020 AFCEA 40 Under 40 award and was a member of the team that won the 2018 Collier Trophy (Automatic Ground Collision Avoidance System Team), as well as numerous AFRL Awards. She serves on the AIAA Intelligent Systems Technical Committee, the NASA Formal Methods Program Committee, the IEEE Space Mission Challenges for Information Technology - IEEE Space Computing Conference Program Committee, and the IEEE Aerospace Conference Committee. Dr. Hobbs has a BS in Aerospace Engineering from Embry-Riddle Aeronautical University, an MS in Astronautical Engineering from the Air Force Institute of Technology, and a Ph.D. in Aerospace Engineering from the Georgia Institute of Technology.
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Nathaniel Hamilton
AI Scientist, Parallax Advanced Research: Nathaniel Hamilton is an AI Scientist at Parallax Advanced Research supporting the Safe Autonomy Team at the Air Force Research Laboratory's Autonomy Capability Team (ACT3). There he investigates Safe Reinforcement Learning (SafeRL) approaches and how we can better integrate safety into the learning process to enable safe, trusted, and certifiable autonomous and learning-enabled controllers for aircraft and spacecraft applications. His previous experience includes studying how Run Time Assurance (RTA) impacts the learning and performance of SafeRL agents, and work in simulation to real-world (sim2real) transfer for learning-enabled controllers. In 2019, Dr. Hamilton was awarded the National Defense Science and Engineering Graduate (NDSEG) Fellowship. Dr. Hamilton has a BS in Electrical and Computer Engineering from Lipscomb University, and an MS and Ph.D. in Electrical Engineering from Vanderbilt University.
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9.03 AV Systems, Sensors, Flight Testing, and V&V
This session includes a broad focus on topics ranging from integrated systems, sensor technologies and safety critical hardware, and operator feedback and avionics technologies for atmospheric flight applications including piloted, remotely piloted, and autonomous platforms. Papers may address concepts and practices for the design, integration and testing of these systems for improving aircraft performance, operator situational awareness, survivability, energy state, and airspace deconfliction. Novel sensor concepts and sensor fusion, aircraft state estimation, and operator feedback are all important example topics for this session.
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Andrew Lynch
Director, U.S. Marketing, Tactical Air Support Inc.: Mr. Lynch graduated with merit from the United States Naval Academy in 1992 with a Bachelor of Science degree in Aerospace Engineering. He is a graduate and former Commanding Officer of the United States Naval Test Pilot School and led the Navy's Specialized and Proven Aircraft Program (PMA-226). He is currently the Director, U.S. Marketing at Tactical Air Support Inc.
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Thomas Fraser
Engineer, Lockheed Martin Corp: Tom began his engineering career with a BS in Mechanical Engineering from the University of Massachusetts: Lowell. He continued education with an MS in Aerospace Engineering from Purdue University. Tom currently works in the avionics hardware and software group for Lockheed Martin.
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Tom Mc Ateer
System of Systems Test and Evaluation, NAVAIR: Systems of Systems Test and Evaluation, Naval Air Warfare Center Aircraft Division, Patuxent River, MD.
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9.04 AV Flight Guidance, Navigation, and Control Theory and Application
This session focuses on Atmospheric Flight Control and includes theory, application, and future or historical operational example topics ranging from guidance algorithms and path planning; navigation state estimation and sensing and control variable construction; to flight control law loop closure design, synthesis, and evaluation. The Air Vehicle Flight GNC session is open to any atmospheric vehicle concept including piloted, remotely piloted, and autonomous platforms categorically ranging from fixed wing, rotary wing, propulsive and buoyant lift applications for Earth-based or other Planetary Atmospheric GNC applications (atmospheric referring to the envelope of gases that surrounds any planet or dwarf planets or moons within or outside the solar system). Example topics may include linear and nonlinear derivation, analysis and simulation results to experimental or operational flight events and lessons learned.
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Christopher Elliott
Principal Research Engineer, CMElliott Applied Science LLC: Christopher M Elliott is a Principal Research Engineer at CMElliott Applied Science LLC, a company that provides innovative solutions for challenges in engineering research and production. With over 25 years of experience in the aerospace industry including roles as a Lockheed Martin Aeronautics Technical Fellow in Flight Control and Vehicle Management Systems, Dr. Elliott has worked on a number of diverse research programs for the Lockheed Martin Skunk Works, such as the International Space Station, Block 60 F16, F35 Joint Strike Fighter, and Hybrid Airship. He is also an Adjunct Professor at Texas Christian University and the University of Texas at Arlington, where he teaches and mentors students in mechanical and aerospace engineering. He holds a PhD and an MS in Aerospace Engineering from UT Arlington, and a BS in Aerospace Engineering from UT Austin. He is an AIAA Associate Fellow and the Air Vehicle Chair for the annual IEEE Aerospace Conference and a passionate advocate for advancing the field of aerospace and mechanical engineering; guidance, navigation, and control; modeling, simulation, estimation, and optimization of dynamic systems; and quantum information science.
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Richard Hoobler
Graduate Research Assistant, University of Texas at Austin: Richard Hoobler has a Bachelor's degree in Aerospace Engineering from Iowa State University and a Master's degree from UT Austin. He is currently working on his PhD at UT Austin under Dr. Maruthi Akella. His research interests are in Aircraft GNC, Adaptive Control, and System Identification.
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Nikolaus Ammann
Research Scientist, DLR (German Aerospace Center): Nikolaus Ammann received his B.Sc. degree in computer science from the University of Lübeck in 2009. Afterwards he continued his study at the Auckland University of Technology and the University of Lübeck and received the M.Sc degree in 2012. Since then, he works as a research scientist at the German Aerospace Center (DLR). His research activities include sensor fusion, visual navigation for unmanned aerial vehicles (UAVs) and spacecraft. Most recently, he was appointed head of a DLR-wide project on counter UAS technologies.
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Kristin Wortman
Principal Professional Staff, Johns Hopkins University Applied Physics Laboratory: Principal professional staff, Space Exploration Sector's Space Mission Assurance group at Johns Hopkins University Applied Physics Laboratory located in Laurel, MD. Support EZIE and Dragonfly NASA missions and several National Security Space missions as the lead software assurance engineer. Adjunct professor, Computer Sciences Department, University of Maryland University College since 2001. B.S., Computer and Information Science; M.S., Software Engineering, University of Maryland University College.
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Virgil Adumitroaie
Data Scientist, Jet Propulsion Laboratory: Past research in high-speed turbulent combustion modeling, data dimensionality reduction, neural networks, signaling pathways, decision support, climate data assimilation, and scientific software development. Currently working on planetary atmospheric and magnetospheric modeling. Adjunct Lecturer at the Viterbi School of Engineering, USC. Ph.D., Mechanical Engineering, University at Buffalo.
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10.01 Computational Modeling
The focus of this session is Computational Modeling in any discipline, with emphasis on the mathematical model of the phenomenology and on the numerical algorithms used for solution. Disciplines include fluid dynamics and fluid/thermal sciences, biological flows, earth and planetary physics, systems engineering studies, sensor management and sensor modeling, and radar and signal processing.
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Virgil Adumitroaie
Data Scientist, Jet Propulsion Laboratory: Past research in high-speed turbulent combustion modeling, data dimensionality reduction, neural networks, signaling pathways, decision support, climate data assimilation, and scientific software development. Currently working on planetary atmospheric and magnetospheric modeling. Adjunct Lecturer at the Viterbi School of Engineering, USC. Ph.D., Mechanical Engineering, University at Buffalo.
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Tiberiu Barbat
Director, Virtual-Ing: I got my Ph.D. in Mechanical Engineering from SUNY at Buffalo, NY in 1999 and continued my activity for 26 years to become an expert in Computational Fluid Dynamics (CFD) modeling. I am founder and Director of Virtual-Ing SRL, Bucharest, Romania, company providing consulting services in CFD modeling for research projects in academia and industry. Our projects encompassed a variety of areas where new applications of CFD were desired: heat transfer in multiphase flows with phase changes, non-newtonian flows, blood flow in stented arteries, water flow and waves effects on the banks of rivers and channels, air flow in wind turbines farms. The CFD expertise came from past work and research experience as CFD Lead Consulting Engineer, Senior Support Engineer at Fluent, Inc., Ansys, Inc. in Ann Arbor, Michigan (1999-2006) and also from the research completed during PhD years in the Department of Mechanical and Aerospace Engineering of SUNY at Buffalo (1994-1999). My interest in CFD started back as Assistant Professor, Department of Aerospace Engineering, "Politehnica" University of Bucharest, Romania (1992-1994) and as R&D Engineer in Turbomecanica SA, Bucharest, Romania (1989-1992). I am a member in American Physical Society (APS) and keep a large interest in Physics in general.
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10.02 Innovative Software Engineering and Management Techniques and Practices
Practices followed during development and management of aerospace software systems vary across the industry. This divide seems to be growing as emerging markets, such as commercial space and cubesats, adopt techniques from other software domains while the traditional aerospace market works to tailor existing processes. Suggested topics covering both experience and research in software engineering and management techniques with both flight and ground system development such as: innovative software architectures, software management techniques to ensure and measure software progress, effective review processes, COTS integration and code reuse strategies, new design methods, and unique approaches to software test and verification. Other software engineering topics will also be considered in this session.
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Ronnie Killough
Program Director - R&D, Southwest Research Institute: Ronnie Killough is a Program Director in the Space Science Division at Southwest Research Institute (SwRI). In his 34 years at SwRI, Ronnie has developed software for cruise missile simulators, space shuttle control center systems, and unmanned spacecraft. Until 2014 he was Director of the Communications and Embedded Systems department in which he was responsible for oversight of research and development of network-centric systems, tactical communications systems, cyber security, and high-reliability software. Ronnie returned to his passion for space and served as software systems lead and flight director for the Cyclone Global Navigation Satellite System (CYGNSS) mission which launched in December 2016. He is currently Project Manager for a Heliophysics SMEX mission called Polarimeter to Unify the Corina and Heliosphere (PUNCH), a constellation of four microsatellites creating 3D images of the solar wind; PUNCH launched in March 2025.
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Jeremiah Finnigan
Senior Professional Staff, Johns Hopkins University/Applied Physics Laboratory: Senior Professional Staff, Space Exploration Sector, Johns Hopkins University Applied Physics Laboratory. B.S. Mathematics, B.S. Electrical Engineering, and M.S. Computer Engineering, University of Maryland; M.S. Computer Science, Johns Hopkins University.
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10.03 Software Architecture and Design
Appropriate software architecture is critical to the design, development and evolution of all software systems, and its role in the engineering of software-intensive applications in the aerospace domain has become increasingly important. This session solicits novel ideas on the foundations, languages, models, techniques, tools, and applications of software architecture technology. Topics include software architecture for space mission systems; architecture across software, system and enterprise boundaries; architectural patterns, styles and viewpoints; architecture frameworks; design reasoning, capturing and sharing design decisions; and open architectures, product-line architectures, and systems of systems software architects’ roles and responsibilities.
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Martin Stelzer
Research Associate, German Aerospace Center (DLR): Martin Stelzer studied computer science at FH Ingolstadt and the University of Hagen and received his M.Sc. Degree in 2012. Since 2007 he has been working at the German Aerospace Center in the field of onboard software frameworks and was involved in the space projects ROKVISS, Kontur-2, and EROSS.
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Peter Lehner
Team Lead Mobile Manipulators, German Aerospace Center (DLR): Peter Lehner is the Mobile Manipulators team lead at the Institute of Robotics and Mechatronics, German Aerospace Center (DLR). Before he joined DLR in 2014, he received his master's degree in Computer Engineering from the Technical University of Berlin in 2014. His current research activities include developing methods for autonomous motion generation for mobile manipulation systems to empower mobile robots to autonomously interact with their environment.
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10.04 Software Quality, Reliability and Safety Engineering and Other Illities
The focus of this session is to share systematic practices followed in aerospace to ensure an adequate confidence level that a software system conforms to its requirements and will perform in a safe and reliable manner. Software quality, reliability and safety engineering covers methodologies and techniques used for assessment of the development cycle, verification, validation and test programs, standards, models, certifications, tools, data analysis and risk management. This session is also a forum for discussion on other illities, such as software maintainability.
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Kristin Wortman
Principal Professional Staff, Johns Hopkins University Applied Physics Laboratory: Principal professional staff, Space Exploration Sector's Space Mission Assurance group at Johns Hopkins University Applied Physics Laboratory located in Laurel, MD. Support EZIE and Dragonfly NASA missions and several National Security Space missions as the lead software assurance engineer. Adjunct professor, Computer Sciences Department, University of Maryland University College since 2001. B.S., Computer and Information Science; M.S., Software Engineering, University of Maryland University College.
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Robert Klar
Institute Engineer, Southwest Research Institute: Robert Klar has over 28 years of experience in the areas of software engineering, real-time operating systems, embedded systems, signal processing, image processing, computer networking, and communications. He has contributed to flight software for many space missions including PUNCH, CYGNSS, MMS, WISE, Kepler, New Horizons, Orbital Express, Fermi, Swift, and IMAGE. Robert has a B.S. in Computer Engineering from Texas A&M and an M.S. in Electrical Engineering from Saint Mary’s University. He is currently pursuing additional graduate work in Machine Learning at the University of Texas at San Antonio.
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10.05 Model-based Systems and Software Engineering
This session is concerned with the application, or potential application, of advanced model-based approaches, methodologies, techniques, languages, and tools to the aerospace domain. Topics ranging from theoretical and conceptual work in these areas to specific, concrete applications, in scope from small software systems to complex monolithic systems to large system-of-systems, are welcome. Other driving current themes include: coordination and usage of multiple types of models, e.g., digital twins, descriptive versus behavioral models; the use of MBSE simulations and analyses in support of architecture development; the application of information visualization techniques for improved MBSE deliverables; the use of MBSE in specialized domains such as fault protection or electrical systems engineering. The Session's areas of interest including model-based architecture and analysis, design, control systems, verification and testing, simulation, domain specific languages and transformations, aircraft, spacecraft, instruments, flight systems, ground systems, planning and execution, guidance and navigation, and fault management.
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Aleksandra Markina Khusid
Department Manager, MITRE Corporation: Aleksandra Markina-Khusid received the B.S. degree in physics, M.S. and Ph.D. degrees in electrical engineering, and the M.S. degree in engineering and management, all from the Massachusetts Institute of Technology, Cambridge, MA, USA 1999, 2001, 2005, and 2015 respectively. She leads the Systems and Mission Analysis Department, MITRE Corporation, McLean, VA, USA. Her research interests include analytical and quantitative systems engineering and mission engineering, including systems of systems engineering, trade space analysis, and decision support as enabled by the modern digital engineering approaches.
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Hongman Kim
Systems Engineer, Jet Propulsion Laboratory: Hongman Kim is a software systems engineer at NASA’s Jet Propulsion Laboratory. Since he joined JPL in 2014, Hongman worked on a number of software development projects including concept design study environment and ontology-based engineering data integration. Currently, he works as software architect of Ingenium that provides a Web-based test procedure authoring and execution environment for system level testing and integration of JPL flight projects. Before joining JPL, he was a project manager at Phoenix Integration, Inc., where he led development of model-based systems engineering (MBSE) technology. He also worked on a number of government funded projects including points cloud visualization, distributed computing, and design optimization. He holds a PhD degree in aerospace engineering from Virginia Tech, and MS and BS degrees in aerospace engineering from Seoul National University.
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10.06 Machine Learning / Artificial Intelligence (ML/AI) for Aerospace Applications
This session considers how to create state-of-the-art single and multi-agent system technologies necessary for developing algorithms, software, or hardware for intelligent, adaptive, and learning systems. Application areas include single and multiple homogeneous or heterogenous platforms and their related systems, e.g., ground movers / stations, single or constellations of spacecraft/satellites, unmanned aerial systems (UAS), etc., including mission systems, and autonomy. Techniques considered will include, but are not limited to, all artificial intelligence, machine learning, and reinforcement learning paradigms, genetic programming and algorithms, swarm intelligence, probabilistic AI, trustworthy and explainable AI (XAI), cooperative multi-agent systems, and training, testing, & verification tools and methodologies. This session invites papers on best practices towards implementing new state-of-the-art autonomy and intelligence systems for aerospace. Papers on adversarial machine learning, novel single and multi-agent AI/ML systems, multi-objective AI/ML protocols, and AI/ML architectures and algorithms with guaranteed stability, robustness, and / or performance bounds are of particular interest.
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Daniel Clancy
Senior Research Engineer, Georgia Tech Research Institute: Dan has worked in the aerospace / defense industry for over 25 years. His research interests include machine learning and artificial intelligence; advance battle management, command and control systems; multi-agent decision and game theory; and information fusion, advanced tracking, data association, and target ID techniques. He previously worked for Lockheed Martin Aeronautics Company in Fort Worth, TX, where he was a lead designer of the information fusion system for the F-35 Lightning II. He has been an adjunct professor at Texas Christian University in the Department of Engineering. He received his B.S. degree in electrical engineering from Michigan Technological University in 1988, his M.S. degree in electrical engineering from Boston University in 1991, and his Ph.D. degree in electrical engineering from the Ohio State University in 1997.
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Georges Labrèche
Spacecraft Operations Engineer, Tanagra Space / European Space Agency: Georges Labrèche develops and operationalizes AI technology demonstrators on-board the European Space Agency's OPS-SAT Space Lab. His research focuses on leveraging edge computing for in-orbit machine learning and autonomous decision-making. He received his B.S. in Software Engineering from the University of Ottawa, Canada, M.A. in International Affairs from the New School University in New York, NY, and M.S. in Spacecraft Design from Luleå University of Technology in Kiruna, Sweden. He founded Tanagra Space, an Estonian-based AI consultancy that supports the OPS-SAT mission control team at ESOC in Darmstadt, Germany. Georges lives in Queens, NY.
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Pooria Madani
Assistant Professor, Ontario Tech University: Dr. Pooria Madani is an Assistant Professor of Computer Science and IT at Ontario Tech University. His research focuses on adversarial machine learning and federated learning, particularly in aerospace systems. He develops physics-informed adversarial testing methods to evaluate and improve the robustness of AI models in aircraft and satellite systems. His work in federated learning explores secure, communication-efficient model training across distributed aerospace platforms, including UAV swarms and satellite-ground networks. Dr. Madani integrates cutting-edge research into his teaching through hands-on projects, critical readings, and interactive lectures. He is passionate about preparing students to tackle real-world challenges in AI, security, and autonomous systems. He also supervises student research projects, mentors competition teams, and contributes to the broader research community through peer-reviewed publications and collaborations.
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10.07 Human-Systems Interaction
Humans are the most critical element in system safety, reliability, and performance. Their creativity, adaptability, and problem-solving capabilities are key to resilient operations across the different aerospace applications. This session focuses on the technologies and techniques leading to effective interfaces and interaction between humans and spacecraft, robots, and other aerospace systems. Specific topics of interests include HCI-HMI, multimodal sensory integration such as vision, haptics and audio, HCI-HMI for tele-operation interfaces, virtual, augmented and mixed reality environments, scientific visualization and natural user interfaces as applied to design, production, operations, and analysis, as well as training and for decision support. Novel solutions/experiences from other domains and their application in aerospace domain, specifically contributing to an efficient human systems interaction are also of interest.
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Janki Dodiya
Professor for Augmented/Virtual Reality and Human Computer Interaction, IU International University of Applied Science: Janki Dodiya is a Professor of Augmented/Virtual Reality and Human Computer Interaction at IU International University in Germany. She received her PhD in Computer Science in the topic of Virtual Environments in 2011, from University of Reading, UK. She thereafter continued her research at the German Aerospace Centre (DLR) for 10 years for the Institute of Transportation Systems and Department of Software for Space Systems & Interactive Visualization, DLR, researching design and evaluation for space systems such as multimodal interaction techniques for a virtual reality simulation for on-orbit servicing (VROOS) and transportation systems such as interaction design for future autonomous vehicles. Her current research interest includes, human computer interaction/multimodal interaction, virtual reality, artificial intelligence and usability engineering including application areas such as Aerospace, Education, Psychology, Transportation, Humanitarian and Art.
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Georgia Albuquerque
Lead Researcher in Extended Reality (XR), German Aerospace Center - DLR: Georgia Albuquerque is the leader of the Extended Reality research group at the Institute of Software Technology at the German Aerospace Center (DLR). She earned her Bachelor's degree in Computer Science from the University of Pernambuco, Brazil, in 2003, followed by a Master's degree in Computer Science from TU Braunschweig, Germany, in 2007. She completed her PhD at the Computer Graphics Lab, TU Braunschweig, in 2013, and subsequently worked as a postdoctoral researcher until 2019. Her primary research interests include augmented and virtual reality, digital twins, visual analytics, machine learning, and computer graphics.
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10.08 Image Processing and Computer Vision
The focus of this session is both theoretical and experimental work on Image Processing and Computer Vision in aerospace applications. The disciplines include, but not limited to image-based navigation, image classification, image reconstruction, image segmentation, feature extraction, image compression, object detection and tracking, image correlation, coding and limitations, computational complexity, adaptive algorithms, video coding (e.g., MPEG, H.265), hardware and bandwidth limitations, key improvements, contributions, and lesson learned.
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Marco Sewtz
Scientific Staff, German Aerospace Center - DLR: Marco Sewtz is the lead for software and interfaces of the new lunar exploration rover at the German Aerospace Center (DLR). He received his B.Eng. at the University of Applied Sciences of Munich and his M.Sc. at the Technical University of Munich. His interests focuses on SLAM and multi-modal perception of the environment. Before his current role, he worked as an electrical designer for high-performance processing modules for space hardware at Airbus Defence and Space.
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Timothy Chase
Ph.D. Candidate/Computer Engineer, University at Buffalo/NASA Goddard Space Flight Center: Timothy is a computer engineer at NASA Goddard Space Flight Center and a Ph.D. student in Computer Science and Engineering at the University at Buffalo in the Distributed RObotics and Networked Embedded Sensing (DRONES) Lab under Dr. Karthik Dantu and the Advanced Navigation and Control Systems Lab under Dr. John Crassidis. He received his B.S. in Computer Science and M.S. in Computer Science and Engineering from the University at Buffalo. His research interests include spacecraft perception and autonomy, optical navigation systems, simultaneous localization and mapping, and embedded computer vision.
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Levin Gerdes
PhD candidate, University of Malaga: Levin Gerdes received his M.Sc. in Computer Science at the RWTH Aachen University in 2016 and joined the European Space Agency's Automation and Robotics Section via the German Trainee Programme. In 2019, he was hired for the role of Robotics Engineer for the same section, taking over responsibility of ESA's Planetary Robotics Lab from 2021 till 2023. In 2023, he joined UMA's Space Robotics Lab as a doctoral researcher.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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Wolfgang Fink
Associate Professor, University of Arizona: Professor Fink is the inaugural Edward & Maria Keonjian Endowed Chair, University of Arizona with joint appointments in the Departments of ECE, BME, SIE, AME, and Ophthalmology & Vision Science. Prof. Fink is named AIMBE Fellow, PHMS Fellow, SPIE Lifetime Fellow, ARVO Fellow, NAI Lifetime Fellow, UA da Vinci Fellow, UA ACABI Fellow, and Senior Member IEEE. He holds a Ph.D. in Theoretical Physics, University of Tübingen, Germany. Among numerous awards Prof. Fink received: NASA Space Flight Awareness (SFA) Launch Honoree Award in 2002, co-recipient of the 2009 R&D Magazine’s R&D 100 and R&D 100 Editors’ Choice Award both for the DOE-funded Artificial Retina Project, co-recipient of the 2009 NASA Board Award for pioneering work on a disruptive autonomous space exploration paradigm, co-winner of the $200,000 DOE/NREL-sponsored E-ROBOT Prize in 2021, and recipient of the 2023 SPIE Meinel Technology Achievement Award.
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11.01 PHM for Aerospace Systems, Subsystems, Components, Electronics, and Structures
Advanced Diagnostics and PHM can be and is applied separately or concurrently at the device, component, subsystem, structure, system and/or total platform levels. This session will give PHM developers, practitioners, integrators, and users a chance to discuss their capabilities and experiences at any or all of these application levels. Discussion of the integration of PHM capabilities across these various levels of application is welcome and encouraged. Applications involving propulsion systems, fuel management, flight control, EHAS, drive systems, and structures are particularly solicited.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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David He
Professor, University of Illinois at Chicago: David He received a Ph.D. in Industrial Engineering from The University of Iowa. Dr. He is a Professor and Director of the Industrial AI and PHM Integration Laboratory in the Department of Mechanical and Industrial Engineering at The University of Illinois-Chicago. Dr. He is also a Fellow of the Prognostics and Health Management (PHM) Society. Dr. He’s research areas include PHM, Industrial AI, smart manufacturing systems modeling and analysis, quality and reliability engineering.
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11.02 PHM for Autonomous Platforms and Control Systems Applications
This session focuses on diagnostics and prognostics for autonomous system applications and control systems. This would include autonomous system architectures, electronic controls, control systems, and electronic systems for both the item under control and the controlling system. Methods for autonomous decision making, fault detection, rate of progression, and consequence or mission risk are encouraged. The session also is looking for novel technical approaches to use diagnostic and prognostic information to provide control input adjustments that can slow or reverse fault progression.
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Derek De Vries
LMDS Fellow Emeritus, Nothrop Grumman Propulsion Systems: Mr. Derek R. DeVries, P.E., LMDS Fellow Emeritus for Discipline of Avionics and Controls at Northrop Grumman Propulsion Systems. Senior Member of IEEE with over 35 years’ experience in the Aerospace Industry in Operation, Integration, and Development of Space Launch Systems. PHM Society Fellow, Board of Directors, and Honored as a Luminary Speaker for the PHM 2015 Conference. B.Sc Electrical Engineering from University of Utah, and M.Sc. Electrical Engineering from Utah State University. Industrial Advisory Board Member for the University of Utah Electrical Engineering, AIAA Standards Committee NATO Scientific Achievement Award 2016 "Application of Integrated Munitions health Management", Member for AIAA “S-122-2006 Direct Current Power Systems for Earth-Orbiting Satellites”, 15 U.S./Foreign Patents, and AIAA 2001 JPC Arthur D. Rhea Best Paper Award for "Ordnance Components and Systems". Research/Development interests include advanced Avionics and Prognostics and Health Management (PHM) of integrated systems.
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Wolfgang Fink
Associate Professor, University of Arizona: Professor Fink is the inaugural Edward & Maria Keonjian Endowed Chair, University of Arizona with joint appointments in the Departments of ECE, BME, SIE, AME, and Ophthalmology & Vision Science. Prof. Fink is named AIMBE Fellow, PHMS Fellow, SPIE Lifetime Fellow, ARVO Fellow, NAI Lifetime Fellow, UA da Vinci Fellow, UA ACABI Fellow, and Senior Member IEEE. He holds a Ph.D. in Theoretical Physics, University of Tübingen, Germany. Among numerous awards Prof. Fink received: NASA Space Flight Awareness (SFA) Launch Honoree Award in 2002, co-recipient of the 2009 R&D Magazine’s R&D 100 and R&D 100 Editors’ Choice Award both for the DOE-funded Artificial Retina Project, co-recipient of the 2009 NASA Board Award for pioneering work on a disruptive autonomous space exploration paradigm, co-winner of the $200,000 DOE/NREL-sponsored E-ROBOT Prize in 2021, and recipient of the 2023 SPIE Meinel Technology Achievement Award.
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11.03 PHM System Design Attributes, Architectures, and Assessments
Design of complex systems, such as aircraft and space vehicles, requires complex trade-offs among requirements related to performance, safety, reliability, and life cycle cost. The development of effective architectures and implementation strategies are extremely important. This session will focus on the application of methods such as testability, diagnosability, embedding sensors, prognostics, remaining useful life estimates used to design complex aerospace systems, and architectures to design, enable, and implement complex aerospace systems. We invite papers discussing new methodologies, lessons learned in application of health management methods in system design, and operational experience with health management capabilities embedded into systems early in the design process.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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Derek De Vries
LMDS Fellow Emeritus, Nothrop Grumman Propulsion Systems: Mr. Derek R. DeVries, P.E., LMDS Fellow Emeritus for Discipline of Avionics and Controls at Northrop Grumman Propulsion Systems. Senior Member of IEEE with over 35 years’ experience in the Aerospace Industry in Operation, Integration, and Development of Space Launch Systems. PHM Society Fellow, Board of Directors, and Honored as a Luminary Speaker for the PHM 2015 Conference. B.Sc Electrical Engineering from University of Utah, and M.Sc. Electrical Engineering from Utah State University. Industrial Advisory Board Member for the University of Utah Electrical Engineering, AIAA Standards Committee NATO Scientific Achievement Award 2016 "Application of Integrated Munitions health Management", Member for AIAA “S-122-2006 Direct Current Power Systems for Earth-Orbiting Satellites”, 15 U.S./Foreign Patents, and AIAA 2001 JPC Arthur D. Rhea Best Paper Award for "Ordnance Components and Systems". Research/Development interests include advanced Avionics and Prognostics and Health Management (PHM) of integrated systems.
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11.04 PHM for Non-Aerospace Applications
This session seeks contributions in non-aerospace but related applications, e.g., automotive industry, trains, marine, oil & gas, etc. Both programmatic and technology presentations are solicited, particularly those focused on capabilities, cost benefits, and lessons learned.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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David He
Professor, University of Illinois at Chicago: David He received a Ph.D. in Industrial Engineering from The University of Iowa. Dr. He is a Professor and Director of the Industrial AI and PHM Integration Laboratory in the Department of Mechanical and Industrial Engineering at The University of Illinois-Chicago. Dr. He is also a Fellow of the Prognostics and Health Management (PHM) Society. Dr. He’s research areas include PHM, Industrial AI, smart manufacturing systems modeling and analysis, quality and reliability engineering.
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11.05 PHM for Commercial Space Applications
This session seeks papers on diagnostics, prognostics, health management (PHM) and autonomous fault management for satellites, satellite in-space servicing, and other commercial space applications (e.g., asteroid mining, etc.). Papers are sought in the areas of satellites, launch vehicles, and other new space ventures (e.g., tourism, natural resource exploitation). Papers may address research, actual flight experience, and future planning related to satellite and launch vehicle PHM and fault management.
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Wolfgang Fink
Associate Professor, University of Arizona: Professor Fink is the inaugural Edward & Maria Keonjian Endowed Chair, University of Arizona with joint appointments in the Departments of ECE, BME, SIE, AME, and Ophthalmology & Vision Science. Prof. Fink is named AIMBE Fellow, PHMS Fellow, SPIE Lifetime Fellow, ARVO Fellow, NAI Lifetime Fellow, UA da Vinci Fellow, UA ACABI Fellow, and Senior Member IEEE. He holds a Ph.D. in Theoretical Physics, University of Tübingen, Germany. Among numerous awards Prof. Fink received: NASA Space Flight Awareness (SFA) Launch Honoree Award in 2002, co-recipient of the 2009 R&D Magazine’s R&D 100 and R&D 100 Editors’ Choice Award both for the DOE-funded Artificial Retina Project, co-recipient of the 2009 NASA Board Award for pioneering work on a disruptive autonomous space exploration paradigm, co-winner of the $200,000 DOE/NREL-sponsored E-ROBOT Prize in 2021, and recipient of the 2023 SPIE Meinel Technology Achievement Award.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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Derek De Vries
LMDS Fellow Emeritus, Nothrop Grumman Propulsion Systems: Mr. Derek R. DeVries, P.E., LMDS Fellow Emeritus for Discipline of Avionics and Controls at Northrop Grumman Propulsion Systems. Senior Member of IEEE with over 35 years’ experience in the Aerospace Industry in Operation, Integration, and Development of Space Launch Systems. PHM Society Fellow, Board of Directors, and Honored as a Luminary Speaker for the PHM 2015 Conference. B.Sc Electrical Engineering from University of Utah, and M.Sc. Electrical Engineering from Utah State University. Industrial Advisory Board Member for the University of Utah Electrical Engineering, AIAA Standards Committee NATO Scientific Achievement Award 2016 "Application of Integrated Munitions health Management", Member for AIAA “S-122-2006 Direct Current Power Systems for Earth-Orbiting Satellites”, 15 U.S./Foreign Patents, and AIAA 2001 JPC Arthur D. Rhea Best Paper Award for "Ordnance Components and Systems". Research/Development interests include advanced Avionics and Prognostics and Health Management (PHM) of integrated systems.
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11.06 PHM and Digital Engineering and Transformation
This session solicits contributions in the areas of PHM applications focused around the recent Digital Twin and Digital Thread paradigm, Model Based System Engineering, and Enterprise-wide Digital Transformation in aerospace and associated industries. Of particular interest are solutions, architectures, and technologies that leverage or enhance the use of DTs and MBSE for end-to-end PHM management and the delivery of enhanced overall situation awareness.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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Mark Walker
Director AI, Autonomous Systems, End to End Enterprise Solutions: Mark Walker received his BSEE from Cal Poly University, Pomona (1990), and his MSCompEng from the University of Southern California, Los Angeles, CA (1994), where he specialized in machine intelligence. He has been working in applied artificial intelligence since 1989, and has co-authored four patents in the field. His work with HUMS and PHM began with BFGoodrich Aerospace, Vergennes, VT in 1996. He also worked 6 years as Senior Consulting Engineer for expert system manufacturer Gensym Corporation and 10 years as Lead Engineer, Intelligent Systems for General Atomics, where he led GA in the development of reusable PHM systems applied to various industries. He founded D2K Technologies in 2014, a solution provider of intelligent model-based reasoning systems for mission critical systems. D2K was acquired by End to End Enterprise Solutions (E3S) in 2023, for whom he currently serves as Director, AI and Autonomous Systems. He also serves as a PHM and AO SME for NASA, with active projects at SSC, JSC, and KSC. He resides with his family in Oceanside, California.
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11.07 PHM for Human Health and Performance
This session is an effort to bridge PHM to Space Medicine as part of Integrated System Health Management (ISHM) and healthcare domains as applied to High Value Human Asset. PHM4HHP is focused on tracking status of very healthy individuals 24/7, as well as ensuring a sustained top-level performance required on manned space exploration missions. Papers are sought that show how systems engineering and MBSE with PHM techniques and methodologies, such as predictive analytics, predictive diagnostics, root cause analysis, virtual sensors, data and information fusion, data mining, and big data analytics with computationally generated biomarkers can serve as a scientific and engineering foundation for building both evidence-based and analytics-based individual health maintenance/support for human assets. Objectives include developing and demonstrating PHM capabilities for assessing, tracking, predicting, and ultimately improving long-term individual human health status to ensure mission success.
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Alexandre Popov
NASA Emeritus Docent at the U.S. Space and Rocket Center and AIAA Systems Engineering Technical Committee (SETC) Member, McGill University: currently working on MBSE and PHM-based technologies with predictive diagnostics capability to maintain/support crew health (Human Health and Performance (HHP)) on the ISS program and future manned space exploration missions. His efforts on "PHM for Astronauts" project within US/Canadian/Russian collaboration framework are focused on a paradigm shift from telemedicine to HHP autonomy based on systems engineering concepts, methods and techniques, which are to identify precursors and computationally generated biomarkers of impending health issues, that otherwise would have gone undetected. Contributed to three manned space programs: BURAN space transportation system (1983-1988), Mir space station (1988-1998), and the ISS program at RSC-Energia (1996-1998), Lockheed Martin Canada (2000-2003) and Canadian Space Agency (CSA) (2003-2014). Ran a project enabling Crew Electronic Health Records (CEHR) technology on the ISS program and led CSA efforts on system requirements and conceptual prototype development. AIAA SETC member since 2009. AIAA Senior Member.
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Wolfgang Fink
Associate Professor, University of Arizona: Professor Fink is the inaugural Edward & Maria Keonjian Endowed Chair, University of Arizona with joint appointments in the Departments of ECE, BME, SIE, AME, and Ophthalmology & Vision Science. Prof. Fink is named AIMBE Fellow, PHMS Fellow, SPIE Lifetime Fellow, ARVO Fellow, NAI Lifetime Fellow, UA da Vinci Fellow, UA ACABI Fellow, and Senior Member IEEE. He holds a Ph.D. in Theoretical Physics, University of Tübingen, Germany. Among numerous awards Prof. Fink received: NASA Space Flight Awareness (SFA) Launch Honoree Award in 2002, co-recipient of the 2009 R&D Magazine’s R&D 100 and R&D 100 Editors’ Choice Award both for the DOE-funded Artificial Retina Project, co-recipient of the 2009 NASA Board Award for pioneering work on a disruptive autonomous space exploration paradigm, co-winner of the $200,000 DOE/NREL-sponsored E-ROBOT Prize in 2021, and recipient of the 2023 SPIE Meinel Technology Achievement Award.
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11.08 Panel: PHM from a Practitioner’s Perspective – a Potpourri of Capabilities, Issues, Case Studies, and Lessons Learned
Practitioners in the PHM field are solicited to share their experiences and observations as part of a distinguished panel of experts. A short presentation will be required of all participants that describes their focus topic within the PHM and CBM+ domains. This session will cover a broad range of research, lessons-learned experiences and application topics covering the challenges and innovative engineering and/or business approaches associated with the development and implementation of PHM capabilities and CBM+ architectures. The session will feature presentations by senior leaders in the field and a panel discussion. Panel members from PHM communities, academia, government, and industry, will focus on strategies that have resolved or will resolve historical issues, and challenges, and provide insight. Interested parties should contact the session organizers.
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Andrew Hess
President, The Hess PHM Group, Inc.: Consultant to government and industry on advanced diagnostics, prognostics, data and predictive analytics, CBM, smart manufacturing, health and asset management of machines and engineering systems. Previously program office lead for the JSF PHM effort. Current President of the PHM Society.
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Derek De Vries
LMDS Fellow Emeritus, Nothrop Grumman Propulsion Systems: Mr. Derek R. DeVries, P.E., LMDS Fellow Emeritus for Discipline of Avionics and Controls at Northrop Grumman Propulsion Systems. Senior Member of IEEE with over 35 years’ experience in the Aerospace Industry in Operation, Integration, and Development of Space Launch Systems. PHM Society Fellow, Board of Directors, and Honored as a Luminary Speaker for the PHM 2015 Conference. B.Sc Electrical Engineering from University of Utah, and M.Sc. Electrical Engineering from Utah State University. Industrial Advisory Board Member for the University of Utah Electrical Engineering, AIAA Standards Committee NATO Scientific Achievement Award 2016 "Application of Integrated Munitions health Management", Member for AIAA “S-122-2006 Direct Current Power Systems for Earth-Orbiting Satellites”, 15 U.S./Foreign Patents, and AIAA 2001 JPC Arthur D. Rhea Best Paper Award for "Ordnance Components and Systems". Research/Development interests include advanced Avionics and Prognostics and Health Management (PHM) of integrated systems.
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Mona Witkowski
Project Manager / Deputy Project Manager, Jet Propulsion Laboratory: OCO-2 Project Manager, CloudSat Deputy Project Manager and Gravity Recovery and Climate Experiment (GRACE) Follow-On Operations Mission Manager at the Jet Propulsion Laboratory. Over 41 years of experience at JPL in spacecraft development, operations, risk management and mission assurance. Recipient of NASA Exceptional Service Medal for TOPEX/Poseidon Mission Assurance and NASA Exceptional Achievement Medal for Deep Space Network Risk Management.
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Michael Machado
International Earth Science Constellation Mission Operations Manager, NASA - Goddard Space Flight Center: Mike has nearly 30 years of Mission Operations experience as either a contractor or civil servant at NASA’s Goddard Space Flight Center. He advanced through the ranks as an online flight operations spacecraft analyst, mission planner, spacecraft lead engineer and manager. He has supported both Space Science Mission Operations (SSMO) and Earth Science Mission Operations (ESMO) covering a diverse group of science gathering missions in orbits ranging from near earth to geosynchronous and deep space). He has worked all phases of mission operations: pre-launch, integration and testing, launch & early orbit, normal, decommissioning and end of mission. Most recently, Mike has been the International Earth Science Constellation Mission Operations Manager as well as the Associate Branch Head for the GSFC Mission Validation and Operations Branch (Code 584). In these roles, Mike has enjoyed building relationships with mission representatives both internal to NASA and from other agencies (NOAA, USAF, USGS, etc) and international partners (CNES, DLR, ESA, JAXA, etc). In his free time, Mike enjoys trying to keep up with several hobbies such as tennis, soccer, poker, disc golf, science fiction and travel with his family (wife and toddler).
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12.01 Orbital, Surface and Payload/Instrument Mission Operations
This session solicits papers which highlight innovative approaches for conducting spacecraft orbital, surface and payload/instrument mission operations. Responding to in-flight anomalies, mission operations challenges, automation, risk reduction and space debris collision avoidance are also topics that are encouraged. Additional topics solicited include: challenges to managing single or multi-mission operations, managing multiple payloads, operating satellite constellations, small satellite operations, team development, staffing, cost reduction and lessons learned for future missions.
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Mona Witkowski
Project Manager / Deputy Project Manager, Jet Propulsion Laboratory: OCO-2 Project Manager, CloudSat Deputy Project Manager and Gravity Recovery and Climate Experiment (GRACE) Follow-On Operations Mission Manager at the Jet Propulsion Laboratory. Over 41 years of experience at JPL in spacecraft development, operations, risk management and mission assurance. Recipient of NASA Exceptional Service Medal for TOPEX/Poseidon Mission Assurance and NASA Exceptional Achievement Medal for Deep Space Network Risk Management.
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Heidi Hallowell
Staff Consultant GNC Engineer, Ball Aerospace: Heidi Hallowell received B.S. and M.S. degrees from the University of North Carolina at Charlotte in Electrical Engineering. During her 21 years at Ball, Heidi has worked in a variety of GNC roles including spacecraft design and development, simulators, on-orbit commissioning, and spacecraft operation. These programs have included both LEO and interplanetary spacecraft. She has been the CloudSat ADCS lead since 2018 and is also the lead ADCS engineer for the S-NPP and JPSS-1/NOAA-20 programs.
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12.02 Mission Planning, Mission Operations Systems and Ground Architectures
This session focuses on the design, development and implementation of mission operations systems, ground data systems and flight-ground interfaces. Topics may include: methods and technologies that support all aspects of mission design, development, planning, testing, and operations. This may include areas related to uplink (e.g., procedures, planning, scheduling, commanding/sequencing), downlink (e.g., telemetry and data processing and analysis, and response) and strategic planning. We also welcome ideas related to the design, integration, and automation of efficient ground systems. Submissions will be evaluated primarily on novelty, technical innovation, and broader impact to the planning and operations communities.
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Kedar Naik
Staff Consultant - AI Technical Lead, BAE Systems, Space & Mission Systems: Kedar Naik is Senior Principal Engineer II and Artificial Intelligence Technical Lead at BAE Space & Mission Systems. He specializes in machine-learning applications related to spacecraft autonomy, thermal control, adaptive optics, spectral remote sensing, and ground operations. Prior to joining Ball, he was at Northrop Grumman, researching the application of machine learning to cyber-security problems. His professional and research interests lie in machine learning, design optimization, and computational math. He has a Ph.D. from Stanford University, where he was a member of the Aerospace Design Lab, under the direction of Prof. Juan Alonso. He was an NDSEG Fellow from 2009 to 2013 and – during the course of his academic career – he completed internships at NASA Langley, NASA Glenn, the U.S. Army’s Aeroflightdynamics Directorate, and Pratt & Whitney. In addition to his doctorate, he holds a master’s degree from Stanford University and a bachelor’s from the University of Southern California.
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Rob Lange
Mission System Systems Engineer, Jet Propulsion Laboratory: Rob Lange is a Mission System Systems Engineer (MSSE) at the Jet Propulsion Laboratory with more than 20 years experience developing and operating flagship class missions. Rob is currently the MSSE for the Sample Retrieval Lander mission. He was the Mars 2020 Mission Planning Lead, and later the MSSE and surface operations commissioning Phase Lead. Previously, Rob worked on the Mars Science Laboratory in Mission System development and operations teams as commissioning phase planning lead, surface phase system engineering, surface operations strategic planning. Prior experience includes Mars Exploration Rovers science operations and Cassini spacecraft operations science planning engineer. Rob received a B.S. in Mechanical Engineering from the University of Michigan and M.S. in Systems Engineering from the University of Southern California.
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12.03 Human Space Flight Development, Processing, and Operations
This session covers all facets of human spaceflight development, processing, and operations across every mission phase. Topics include the design, development, and operation of crewed spacecraft and extraterrestrial destination systems, and associated support infrastructure. Emphasis is placed on commercial human spaceflight capabilities in low Earth orbit (LEO) and beyond, including the Commercial Crew and Commercial LEO Development Programs and crewed missions to the moon and Mars. Submissions are encouraged on operations research related to pre-flight, in-flight, and post-flight human activities. Additional focus areas include mission analogs; IVA and EVA procedures; launch, landing, and recovery operations; and physiological and psychological effects on crew members throughout all mission types and phases.
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Michael Lee
Deputy Manager, Mission Management & Integration, NASA - Kennedy Space Center: NASA Deputy Manager, Mission Management & Integration, Commercial Crew Program, Kennedy Space Center; 37 years experience in spacecraft mission & ground operations, Systems Integration, and Project Management. Was the NASA Mission Manager for the SpaceX Demo 1 mission to ISS in March 2019. Earned a B.S., in Aerospace Engineering, University of Colorado, Boulder, and a M.S., in Space Systems Operations, Florida Institute of Technology.
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William Koenig
Production Operations Lead, NASA - Kennedy Space Center: William J Koenig Received a B.S. Degree in Marine Transportation from the United States Merchant Marine Academy and a M.S. Degree in Industrial Engineering from the University of Central Florida. He worked in the maritime industry for 8 years before entering the aerospace industry and supporting the Space Shuttle Program in numerous managerial positions for 20 years. In 2007 William joined NASA as the ORION Program Lead for Production Operations. He is presently responsible for supporting the fabrication, transportation, assembly, integration and checkout of the Artemis ORION spacecraft and associated components at Kennedy Space Center.
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12.04 Resilient and Cyber Secure Systems for Mission Operations
Cyber secure, resilient space systems are necessary to ensure continuity of operations and operators ability to execute their missions successfully. This session welcomes novel approaches, tailored to the aerospace domain, for ground systems as well as those spanning both space and ground segments. Examples of resilient operational technologies and systems include: cryptography, architectures (e.g. Zero Trust Architectures (ZTA)), compute and network infrastructure (e.g. redundant, failover systems), software, root of trust (RoT), intrusion detection/prevention, vulnerability/red team assessments, approaches to simplify and streamline Risk Management Framework (RMF) implementations, access control and others. We are also interested in applications of advanced technologies like AI-based analytics, blockchain, active defense, embedded agents, lessons learned in attempted attacks/breaches. Note: if presenting on vulnerabilities, please follow responsible disclosure practices to ensure operators' abilities to protect their systems.
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John Kenworthy
Senior Manager Manager, BAE Systems: Mr. John Kenworthy is a Senior Manager at BAE Systems/Space and Mission Systems focused on a portfolio providing mission resiliency and survivability. John manages the Military Space system strategy, technology roadmaps, cultivating novel technologies, delivering operational systems, and capturing new business within this portfolio. Prior to working at BAE, as a U.S. Air Force civilian, John conducted cyber security vulnerability research, analysis, and assessments for satellite programs. He developed his cyber security skills focusing on national critical infrastructure conducting red team events to inform customers of potential security vulnerabilities and training customers in how to mitigate cyber security risks. At Lockheed Martin, John developed spacecraft fault protection and the flight software/systems team, supporting flight operations and software development for numerous NASA interplanetary spacecraft missions. As a fault protection engineer, John was on-console supporting mission operations for many interplanetary spacecraft critical events and anomaly recoveries. John holds a bachelor’s degree in Mathematics and Computer Science from the University of Puget Sound and a master’s degree in Computer Science from the University of Denver. John attended the Budapest Semesters in Mathematics program as a National Security Education Program David L. Boren Scholar.
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Seth Kricheff
Software Engineer, Thompson Software Solutions: Seth is currently a Software Engineer at Thompson Software Solutions, where he develops software for military aircraft. He completed his B.S. degree in Computer Engineering at Purdue University in December 2024. Prior to graduation, Kricheff interned at Axiom Space, working in Avionics, Power & Software to further the development of Axiom Station. During the Fall and Spring of 2023-2024, he interned remotely for the Air Force Research Laboratory – Space Vehicles Directorate (AFRL/RV), where he developed computer vision models to advance drone detection capabilities. He had previously worked as a research fellow for AFRL/RV during the summer of 2023, where he made his first IEEE publication by designing an explainable machine learning model for satellite anomaly detection. At Purdue, he held several lead and technical positions, most notably as a guidance, navigation, and controls developer for Purdue’s Lunabotics team (2022-2023) and as a system designer for brain-machine interfaces at Dadarlat Lab under Purdue Biomedical Engineering (2021-2022).
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12.05 Automation and Machine Learning Applications in Spacecraft Operations
This session invites contributions that are concerned with the applications of machine learning and data science techniques to deal with the increasing amounts of data being collected in spacecraft operations on flight and/or ground segments. These techniques could be related to any subsystem of the spacecraft, including telecom, power, thermal, or specific instrument data and that of the ground segments. Topics ranging from theoretical and conceptual treatment in these areas to specific and operational treatments are solicited. The benefits of these techniques are very wide in scope from enhancing operator productivity by providing diagnostic tools that detect and explain causes of anomalous behavior either in real-time or by post-processing, to automating mission operations. These benefits are also crucial for smaller missions, such as the emerging CubeSats missions, that typically have very lean teams. Some consideration is made for the computing platforms required for the algorithms.
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Zaid Towfic
Technical Group Supervisor, Jet Propulsion Laboratory: Zaid Towfic holds a B.S. in Electrical Engineering, Computer Science and Mathematics from the University of Iowa. He received his Electrical Engineering M.S. in 2009 and Ph.D. in 2014, both from UCLA, where he focused on signal processing, machine learning, and stochastic optimization. After receiving his Ph. D., Zaid joined the MIT Lincoln Laboratory where he worked on distributed beam forming and geolocation, interference excision via subspace methods, simultaneous communication, and electronic warfare. Zaid joined the Jet Propulsion Laboratory in January of 2017 and has been focused on machine learning and signal processing efforts. He is currently the technical group supervisor of the Reprogrammable Signal Processing Group of the Flight Telecommunication Section.
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Dennis Ogbe
Signal Analysis Engineer, Jet Propulsion Laboratory: Dennis O. Ogbe (S’13, M’20) is a member of the Reprogrammable Signal Processing group at NASA’s Jet Propulsion Laboratory in Pasadena, CA. Prior to joining JPL, he was a postdoctoral associate in the Bradley Department of Electrical and Computer Engineering at Virginia Tech in Arlington, VA, followed by a stint as a software-defined radio engineer at Lynk in Falls Church, VA. He holds a B.S. in electrical engineering from Tennessee Technological University and a Ph.D. in electrical engineering from Purdue University. His research interests are in the fields of communication theory, signal processing, computer engineering, and their application to aerospace engineering problems.
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12.06 Robotics, Autonomy and Operations
This sessions addresses the challenges and opportunities of space robotics autonomy and operations. Topics include autonomous systems, robotics, perception, machine learning, AI and their practical application to space robotics. Papers are solicited that discuss approaches for operating spacecraft with autonomous capabilities, advances in onboard and ground automation and tools, software and systems engineering for operability, fault tolerance and recovery, and human-robot interaction for both manned and unmanned missions. Approaches that address the unique challenges that come with operating robots in space, such as risk, uncertainty, harsh environment, communication delays, and limited resources are also encouraged, as are analyses of successes and challenges, highlights of latest trends, technologies, and best practices that can be leveraged to operate robots effectively in space.
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Vandi Verma
Deputy Manager Mobility and Robotic Systems Section, NASA JPL-Caltech: Vandi Verma is the Deputy Manager for Mobility and Robotics Systems at NASA Jet Propulsion Laboratory, and the Chief Engineer of Robotic Operations for the Mars 2020 mission with the Perseverance rover and Ingenuity helicopter. As Deputy Manager for Mobility and Robotics she leads about 200 JPL roboticists developing new technology for future missions and working on a variety of JPL robotic missions. Robotics capabilities she has worked on are in regular use on the Perseverance, and Curiosity rovers, and in human spaceflight projects. She has been engaged in robotic operations on Mars since 2008 with the Mars Exploration Rovers Spirit and Opportunity, Curiosity rover, Perseverance rover, and Ingenuity helicopter. She graduated from CMU RI with a Ph.D. in Robotics in 2005.
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Alexandra Holloway
Flight Software Engineer, Jet Propulsion Laboratory: Alexandra Holloway leads JPL's Mars Science Laboratory flight software team in developing new capabilities and fixing bugs with embedded software on Mars. Also a member of the data management team, she assesses file system data coming from the spacecraft and writes uplink products to keep the hard drives squeaky clean. Previously, Alexandra used ethnographic techniques to understand Deep Space Network operators' the workflows and design new tools for improved efficiency in a bursty environment.
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