The Problem Our Solution Team Contact Us

SPACE POWER INFRASTRUCTURE

Power at scale.
Delivered to where it is needed.

Beyond Reach Labs™ builds large-scale deployable solar arrays that deliver orders-of-magnitude more energy per launch. We're solving the fundamental power bottleneck that limits what's possible in space.

ORBITAL POWER

Powering the next generation of orbital infrastructure.

Click a satellite to explore how our deployable arrays deliver the energy density orbital data centers and space stations demand.

LUNAR ENERGY

Mobile solar towers for the lunar south pole.

Rovers carry deployable vertical solar towers to crater rims, capturing continuous sunlight at the south pole to power sustained lunar operations.

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THE PROBLEM

The next generation of space infrastructure is power-starved.

Orbital Data Centers

Computing in orbit offers unique advantages: unlimited cooling potential, proximity to satellite constellations, and freedom from terrestrial constraints. But current power systems can't deliver the hundreds of kilowatts these facilities require within launch mass budgets.

Commercial Space Stations

The next wave of orbital habitats (research platforms, manufacturing facilities, tourism destinations) all face the same constraint. The ISS requires 75-90 kW just for baseline operations. Commercial stations need similar or greater capacity at a fraction of the cost.

Lunar Outposts

Sustained lunar presence demands reliable, high-capacity power for life support, ISRU operations, and scientific equipment. The 14-day lunar night makes solar architecture critical.

First Bending Mode Simulator

Visual demonstration only. Not to scale or physically accurate.

25m
Reference systems:
Medium
20:1
1st Mode Frequency 0.10 Hz
Power Output 12.5 kW
Stowed Volume 1.25 m³

The fundamental challenge: structural dynamics limit how large we can build.

As solar arrays get longer, their first bending mode frequency drops, making them susceptible to vibrations that interfere with spacecraft pointing and control. Traditional designs hit a wall: build stiffer (heavier) or build shorter (less power).

Our architecture breaks this tradeoff, enabling large-scale arrays with the structural performance needed for precision pointing.

OUR SOLUTION

A new architecture for space power.

Announcement Coming Soon

Beyond Reach Labs™ is preparing to unveil our patented technologies and breakthrough research that will redefine what's possible in space power systems.

Our novel deployable architecture addresses the fundamental tradeoffs between size, mass, stiffness, and cost that have constrained solar arrays for decades.

Get Notified

TEAM

The future of space is unfolding at Beyond Reach Labs™

Pele Collins

Pele Collins

Co-Founder & Co-CEO

7 years at SpaceX leading the Dragon parachute systems team. Deep expertise in deployment mechanisms, reliability engineering, and human-rated space hardware.

Mitchell Fogelson

Mitchell Fogelson, PhD

Co-Founder & Co-CEO

PhD from Carnegie Mellon University. Industry and academic experience in both robotics and aerospace applications with expertise in design of mechanical meta-materials and mechanisms.

TECHNICAL ADVISORS

TC

Tom Cooley, PhD

25 Years at AFRL

Former Chief Scientist of Space Vehicles Directorate, Senior Scientist for Space Situational Awareness, and Principal Scientist leading AFRL In-space Servicing, Assembly & Manufacturing. Served as Chief Scientist SpaceWERX, Chair of DoD(R&E) Space Community of Interest, and Program Manager for the TacSat-3/ARTEMIS mission.

ZM

Zac Manchester, PhD

Assistant Professor, MIT

Assistant Professor in the Department of Aeronautics & Astronautics at MIT and Principal Investigator of the Robotic Exploration Lab (REx Lab).

GET IN TOUCH

Let's discuss your power requirements

Whether you're planning a mission, evaluating technology options, or exploring partnership opportunities, we'd like to hear from you.