WEBINAR

Enabling High-Performance Infrared Payloads for Space Applications

Infrared imaging is reshaping the future of space-based defense and intelligence. From Space Situational Awareness to missile defense, next-generation missions depend on IR payloads that deliver superior sensitivity, thermal stability, and reliability across SWIR, MWIR, and LWIR bands.

December 09, 2025

7:00 PM UTC

1 hour

View Sponsor's Website

Summary

Next-generation space missions, including Space Situational Awareness (SSA) and missile defense programs such as Golden Dome, require infrared imaging systems that can capture faint signals, operate reliably in harsh thermal environments, and meet demanding size, weight, and power (SWaP) constraints. Achieving this performance requires advanced focal plane arrays (FPAs), efficient cooling solutions, and tightly integrated packaging optimized for the space domain.

In this webinar, Teledyne's infrared imaging specialists will explain the key factors that determine payload performance in orbit. You will learn how innovations in thermal management reduce dark noise, enhance image quality, and support long-term mission reliability, as well as how emerging technologies are shaping the next generation of SWIR, MWIR, and LWIR sensors.

If you work in missile defense, SSA, or space-based sensing, this session provides practical insights into the hardware and system-level strategies driving today's most advanced infrared payloads.

Key Takeaways:

• How thermal and imaging challenges impact infrared performance in SSA and missile defense missions

• Best practices for designing SWIR, MWIR, and LWIR payloads for space-based environments

• Ways integrated cooling and thermal management technologies extend mission life and improve image quality

• System-level approaches for meeting SWaP requirements without sacrificing sensitivity or reliability

• Key trends influencing the future of infrared imaging for next-generation space platforms

As proliferated satellite constellations expand across defense and commercial markets, infrared imaging is becoming a core enabler of space-based situational awareness, early warning, and autonomous operations. This webinar will help you stay ahead of emerging requirements and understand the technologies driving mission success in orbit.

Register today to secure your spot.

Mic Chaudoir, PhD

Director of Astronomy, Space & Defense

Teledyne Space Imaging

Mic Chaudoir is Teledyne’s Director of Astronomy, Space & Defense and joined the company to lead strategic initiatives for advanced imaging solutions in space and defense markets. Chaudoir drives Teledyne’s continued development and innovation to ensure long-term technology strategies meet the needs of evolving space missions and scientific research. Mic brings over a decade of experience in scientific imaging to his role at Teledyne. Throughout his career, he has actively advanced sensor technologies for astronomy and defense applications. Mic earned his Ph.D. in Physics from Northwestern University and a B.S. in Physics from the University of Illinois Urbana-Champaign.

Adam Wade

Strategic Business Development Manager

Teledyne Scientific & Imaging

Adam Wade is Teledyne’s Strategic Business Development Manager, focused on driving growth in imaging solutions for space and defense. He leads product strategy for advanced infrared sensors and integrated payload architectures, enabling next-generation EO/IR capabilities. With over two decades of experience in electro-optical systems, Adam has held senior roles at L3Harris and GEOST, where he directed optical engineering for high-performance imaging systems supporting critical space and defense missions. His expertise spans sensor design, payload integration, and strategic technology development. Adam earned his B.S. in Optical Engineering from the University of Arizona and is recognized for his leadership in advancing IR imaging technologies for national security and space applications.

Sebastian Remi, Ph D

Business Development – Astronomy/Space/Defense

Teledyne Space Imaging

Sebastian Remi leads business development for Teledyne’s Scientific Camera Group for Astronomy, Space, and Defense markets, focusing on advanced imaging solutions for mission-critical applications. He brings deep technical expertise in low-light detection, infrared imaging, and sensor integration, supporting programs that span space domain awareness, missile defense, and scientific research. Sebastian brings extensive experience in condensed matter physics, spectroscopy, and imaging technologies. He previously served as an applications scientist and has contributed to numerous research projects in quantum and materials science. Before transitioning to business development, Sebastian served as an Application Scientist at Teledyne Princeton Instruments, where he worked closely with researchers in astronomy, quantum science, and materials physics to optimize imaging and spectroscopy systems. He earned his Ph.D. in Condensed Matter Physics from Boston University, where his research explored the electronic and mechanical properties of graphene using Raman spectroscopy.

Paul Mark, Ph D

Director of Infrared and Spectroscopy

Teledyne Space Imaging

Paul Mark is Teledyne Judson Technologies’ Director of Infrared and Spectroscopy and joined the company to lead strategic marketing and expand Teledyne’s expertise in infrared sensors and camera technology for defense, space, and scientific applications. Paul drives the company’s continued development and innovation to ensure long-term technology strategies meet the evolving needs of infrared imaging across multiple markets. Paul brings over a decade of experience in high-technology product development and customer engagement to his role. Before joining Teledyne, he worked at Zygo (Ametek), where he developed laser and white-light interferometer accessories. Prior to Zygo, he led a team of optomechanical engineers at ASML, designing next generation overlay measurement systems for photolithography scanners. Earlier in his career, Paul contributed to Coherent’s Advanced Crystal Growth division, developing amplifier and harmonic generation modules for laser product development. Paul earned his Ph.D. in Materials Science from Rutgers University, focusing on nanophotonics, nanosystem assembly modeling, and infrared optics. He received his B.S. in Physics from the University of Vermont, specializing in X-ray diffraction of copolymer systems. He is a published author in Chemistry of Materials, Polymer, and Powder Diffraction, and is an active speaker at scientific conferences.