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Engineered photon-management surfaces
Controlling photon interaction across wavelengths, angles, and polarizations.
Atlas Black
Flexible ultrablack materials
Atlas Black develops geometry-driven ultrablack and superblack materials designed to suppress reflection, scattering, and return signal across demanding optical environments.
>99.5%
visible-light absorption target
0.15%
minimum reflectance reported in published work
VIS-NIR
broadband photon-control focus
Flexible
mold-replicated polymer surfaces
Origin story
The fish the camera could not see
Smithsonian researchers studying ultra-black deep-sea fish found that some specimens were nearly impossible to photograph. Under ordinary lighting, the animals appeared as featureless silhouettes because almost no light returned to the camera lens.
The published photographs required controlled lab lighting, careful angles, tuned exposure, and post-processing to reveal detail. That difficulty is the engineering lesson: from a sensing perspective, the critical question is not only how much light is absorbed, but how little signal returns to the observer.
Biological cue
Deep-sea skin structures trap light before it can return.
Research signal
The darkest measured species reflected about 0.044% of incoming light.
Engineering translation
Atlas Black designs surface geometry to suppress return signal at useful scales.
The platform
Geometry-driven ultrablack materials
Atlas Black is commercializing a new class of hierarchical microstructured surfaces inspired by nature's light-trapping architectures. Instead of relying only on intrinsic material absorption, the surface geometry increases photon path length, suppresses reflection and scattering, and reduces the return signal available to sensors.
Explore the ultrablack technology platform
Photon-management sequence
Scroll through the surface logic from return signal to mission impact.
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Suppress reflection and scattering
Suppressed reflectionMinimizes specular return
Reduced scatteringLimits diffuse signature
Increased absorptionExtends photon path length
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Trap photons repeatedly
MicrocavitiesTrap photons through repeated internal reflections.
Multiple length scalesHierarchical features from sub-micron to micron scales.
Broadband absorptionLow reflectance across wavelengths and viewing angles.
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Geometry-driven photon trapping
Geometry-driven photon trapping and absorption.
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How it works
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Light enters microcavities
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Multiple internal reflections
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Path length increased
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Energy absorbed, reflection minimized
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Engineer for field constraints
The platform emphasizes low reflectance, broadband angular performance, mechanical durability, and repeatable manufacturing.
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Move from surface to system
Reduced detectability supports aircraft, space platforms, ground vehicles, and optical systems where stray signal matters.
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Close on the advantage
The platform connects material science to the operating goal: control light, stay hidden, and preserve mission performance.
Engineered hierarchical microstructures increase photon path length, suppress reflection and scattering, and enable broadband, angle-independent absorption across the visible and near-infrared spectrum.
Mission areas
Built for optical environments where signal matters
Atlas Black's photon-management surfaces translate low-return signal physics into mission-relevant optical control across defense, space, autonomous systems, and scientific instrumentation.
View ultrablack applications
Mission translation sequence
Scroll from low observability to thermal-signature engineering.
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Low observable systems
Reduce visual and NIR signatures on aircraft, vehicles, weapons, and maritime platforms.
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Optical sensors and baffles
Suppress stray light and internal reflections to enhance sensor sensitivity and image fidelity.
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Space platforms
Improve instrument performance and reduce glint for satellites, space-based systems, and observatories.
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Autonomous systems
Enhance survivability and perception in complex, GPS-denied, or contested environments.
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Precision measurement
Enable high-accuracy scientific instruments and alignment-critical optical systems.
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Radiative thermal management
Engineer surfaces to control thermal emission for passive radiative cooling and thermal-management applications.
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Passive cooling surfaces
Leverage broadband IR emission control for lightweight, maintenance-free cooling in harsh environments.
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Thermal signature engineering
Reduce infrared detectability by shaping and suppressing thermal signatures across platforms and missions.
Atlas Black is developing a new class of scalable, durable, hierarchical photon-management materials that control how light interacts with surfaces, enabling mission-critical advantages across defense, space, and scientific applications.
Evidence stack
A path beyond fragile ultrablack coatings
Published University of Notre Dame work demonstrates flexible superblack materials made through silicon mold fabrication and polymer casting, with ultralow visible reflectance, weak angular dependence, and durability-oriented surface design.
<0.4%
hemispherical reflectance across visible wavelengths
0 to 70 deg.
observer-angle range in reported angular testing
Wafer-scale
repeatable production approach for superblack surfaces
Biomimetic design logic
Nature solved low-reflectance camouflage with microscopic structures. Atlas Black brings that logic into engineered, scalable materials.
Handling and surface behavior
Designed for the real world, not just the lab bench
Finger touch resistance
Tweezer scratch comparison
Surface hydrophobicity
Dust roller resistance
Ultrablack FAQ
Frequently asked questions about ultrablack materials
What is ultrablack?
Ultrablack describes materials that return extremely little visible light to an observer. Atlas Black uses the term for geometry-driven low-reflectance surfaces designed to suppress reflection, scattering, and return signal.
Is Atlas Black based on published research?
Yes. The Atlas Black story is grounded in published University of Notre Dame work on flexible superblack materials made through silicon mold fabrication and polymer casting.
How is Atlas Black different from fragile legacy approaches?
Atlas Black emphasizes flexible form factor, hierarchical microstructure, repeatable fabrication, ultralow reflectance, and durability-oriented surface design.
What is Atlas Black designed for?
The platform is positioned for optical environments where return signal matters, including sensors, baffles, space systems, low-observable applications, and precision optics.
Team
Deep tech leadership with defense, semiconductor, and commercialization experience
Dane Reed
CEO
National security and hard-tech leader with experience moving lab-scale science toward engineered deployment.
Dr. Derek Heeger
Technical Director
Electrical and computer engineering PhD with semiconductor, electronic systems, and federal R&D experience.
William Aflleje
Chief Strategist
Senior technology advisor with applied statistics, AI/ML, cyber risk, and dual-use innovation experience.
Contact
Bring photon-management surfaces into the field
Atlas Black is building scalable ultrablack materials for defense, aerospace, space, sensing, and precision optical systems.