Expeditionary Energy Systems

Self-powered shelters for contested environments.

Harbison R&D develops deployable, solar-equipped squad habitats with integrated Faraday-shielded power cores — engineered for the U.S. Army’s expeditionary, multi-domain, and humanitarian mission set.

Founded 2026
Location Woburn, MA
Status Sole proprietor · Small entity
IP U.S. Prov. Pat. App. 64/044,076
Bipyramid Mk2 deployable solar shelter, shown in desert operational configuration with photovoltaic panels on upper and lower faces.
Bipyramid Mk2 — deployed configuration (notional render).

Capabilities

What we do.

Concept-to-prototype engineering for deployable structures, integrated photovoltaic/storage power systems, and EMP-hardened command-and-control enclosures. Every system designed to a single 463L pallet, two-soldier deployment, and a sub-five-minute standup.

01

Deployable Structures

Fold-kinematic aluminum-frame habitats engineered for one-pallet transport and stop-watched two-person deployment. Composite decks and assist-actuated panel pairs.

02

Integrated PV & Storage

Multi-face flexible photovoltaic arrays, hybrid load-bearing / power-carrying tensioning, mil-spec battery banks, and split-phase inverter stacks delivering multi-kilowatt expeditionary power.

03

Faraday & EMP Hardening

Dual-layer woven shielded enclosures with filtered penetrations, targeting MIL-STD-188-125 envelope compliance for sensitive command-and-control electronics.

04

Dual-Use Engineering

Same platform serves DoD expeditionary, DSCA/FEMA disaster response, and commercial remote operations (mining, research stations). One design, three markets, minimal variant cost.

Current R&D Program

Bipyramid Mk2.

The Bipyramid Mk2 is a rapidly deployable solar shelter with an integrated Faraday-shielded power core and an extended photovoltaic array. A single standard military pallet transports a complete self-powered habitat — multi-kilowatt PV harvest, on-board lithium storage, a split-phase inverter, and a shielded enclosure capable of hosting sensitive command-and-control electronics under GPS-denied conditions.

Two soldiers can deploy the structure in minutes without specialized tools. The platform replaces the combined footprint of a soft-wall tent, an external gen-set, a fuel bladder, and a separate shielded C2 module.

Integrated solar harvest
Multi-kilowatt class
Onboard battery storage
Squad-day class
Inverter output
Split-phase AC for ECU / medical / C2 loads
Faraday attenuation
MIL-STD-188-125 envelope target
Deploy time
Stop-watched, two-person
Transport
One standard military pallet
Current TRL
TRL 3 (analytical proof)
Prototype target
TRL 4 · 18-month program

IP & Filing Status

U.S. Provisional Patent filed.

Application
No. 64/044,076

Filed via USPTO Patent Center, April 20, 2026.

Title
Deployable Bipyramid Solar Shelter with Integrated Faraday-Shielded Power Core and Extended Photovoltaic Array
Claims
Twenty (20)

Geometry · folding kinematics · integrated PV skin · Faraday power core · hybrid power-carrying guy cables · extended-array embodiment.

Non-provisional deadline
April 20, 2027

Variant · Mk1-L

Lunar surface power unit.

A scaled-down, suitcase-deployable embodiment of the Mk1 power core — re-qualified for lunar surface use. Half-buried in regolith to harvest the thermal gradient between the +120 °C daytime surface and the −20 °C sub-surface, producing continuous power through the 354-hour lunar night without an RTG.

Form factor
Rugged suitcase

0.85 × 0.55 × 0.25 m closed · 28 kg dry.

Deployed
Half-buried bipyramid

1.4 m across · 1.2 m tall · upper half exposed, lower half buried to the equator.

Peak power
~840 W

720 W photovoltaic · ~120 W thermoelectric during lunar day.

Night baseline
40 W continuous

Regolith thermal-gradient TEG + 1.2 kWh LiFePO4 buffer. Survives full 708 h cycle.

Deploy time
~45 min

Single-EVA astronaut · ~30 min rover-assisted. 0.30 m³ excavation.

Mission domain
CLPS · Artemis · cislunar DoD

Distributed surface power at equatorial or polar sites without RTG or fission reactor.

IP provenance · Embodiment of U.S. Provisional Patent Application 64/044,076 (parent Mk1). Stand-alone claims for the half-buried, thermally-harvested, extraplanetary-surface configuration are included in the forthcoming non-provisional filing.

TRL 2 · Analytical concept · Document HRD-TD-MK1L-001, v1.0, April 2026

Research Notes

Independent hypothesis briefs.

In parallel to the core hardware program, Harbison R&D publishes short, timestamped hypothesis briefs — working notes at the edge of neuroscience, computational psychiatry, and systems biology. These are perspective papers, not clinical guidance.

  • HRD-RN-2026-01 · April 2026 · v1.0

    The Unheld Trip

    A computational and phenomenological parallel between autism and the psychedelic state.

    Proposes that autism may represent a chronically REBUS-like predictive coding state — attenuated priors and over-weighted prediction errors — potentially rooted in developmental dysregulation of endogenous DMT metabolism and 5-HT2A receptor activity. Synthesizes three active research threads: endogenous DMT function, predictive-coding models of autism, and the REBUS model of psychedelic action.

    Read the brief →

Research briefs reflect the views of the author and are published for discussion among researchers. They are not medical advice, not peer-reviewed, and independent of the Bipyramid hardware program.

Publications

Open technical disclosures.

In parallel to the hardware and research-brief programs, Harbison R&D occasionally publishes open technical disclosures — timestamped, peer-readable engineering concepts placed in the public domain under CC‑BY 4.0. These are not patent filings. They establish prior art and invite capable parties to build on, critique, or refute the work.

  • Concept render: orbital constellation of OICK satellites circulating a particle beam through the inner Van Allen belt, with laser power delivery to a space station and the lunar surface.
    System concept — OICK satellite constellation circulating a charged particle beam through the inner Van Allen belt, with laser power delivery to a space station and a lunar surface base.
    HRD-PUB-2026-01 · May 2026 · v1.0 · CC‑BY 4.0

    Geomagnetic Kinetic Energy Storage Using Oscillating Ion Cluster Kickers for Orbital Power Infrastructure

    A defensive disclosure describing a kinetic energy storage architecture for the emerging orbital power economy.

    A method is described for storing electrical energy in space using a charged particle beam circulating in Earth’s geomagnetic field, with energy injection and extraction performed by oscillating ion cluster kickers (OICKs) mounted on a constellation of satellites operating within the inner Van Allen belt (approximately 2,000–3,000 km altitude). The system functions as a kinetic battery for orbital power infrastructure, complementing existing or proposed space-based solar power architectures. Unlike chemical batteries, the storage medium does not degrade with cycling. The geomagnetic field provides the confining structure without mass cost. The disclosure covers the architecture, the underlying physics, energy balance estimates, and integration with current orbital power proposals.

    Mirror
    Technical Disclosure Commons — Article 11425
    Length
    8 pages
    Status
    Published; not seeking patent protection
  • Concept render: two rover-mounted millimeter-wave emitters on the lunar surface aiming counter-propagating beams into a meter-scale boulder, with a glowing interior hotspot where the beams converge and Earth visible in the black sky.
    System concept — two counter-propagating millimeter-wave beams from opposing rover-mounted emitters converging inside a lunar boulder, producing an interior standing-wave hotspot that fractures the rock without imparting net momentum to the surface.
    HRD-PUB-2026-02 · May 2026 · v1.0 · CC‑BY 4.0

    Bilateral Beam-Assisted Rock Fracturing for Low-Gravity and Terrestrial Drilling Operations

    A defensive disclosure on a bilateral millimeter-wave drilling architecture for the Moon, Mars, asteroids, and terrestrial deep-rock applications.

    A method is described for pre-fracturing rock using two or more counter-propagating millimeter-wave or microwave beams aimed at the same target volume from opposite sides. Standing-wave interference and overlapping absorption produce interior thermal-stress concentrations that initiate cracks at much lower bulk energy density than vaporization-based drilling, while the symmetric geometry largely cancels the net momentum imparted to the rock face. The architecture is intended primarily for low-gravity surface drilling on the Moon, Mars, and asteroids — where reaction-force budgets are extremely limited — and as a pre-conditioning step for terrestrial mechanical drills. The disclosure covers the baseline two-beam geometry at 100 GHz, lower-frequency variants (10–30 GHz and below) that trade hotspot resolution for deeper penetration, and multi-beam variants (four- and six-beam symmetric arrangements). A combined two-stage embodiment uses lower-frequency beams for bulk softening and high-frequency beams for crack finishing. Companion disclosure to HRD‑PUB‑2026‑01 (OICK).

    Mirror
    Technical Disclosure Commons — Article 11442
    Companion
    HRD‑PUB‑2026‑01 — OICK geomagnetic storage
    Length
    12 pages
    Status
    Published; not seeking patent protection

Open disclosures are published independent of the Bipyramid hardware program and the Harbison R&D research-brief series. The author makes no claim of patent protection on disclosed material and explicitly intends each disclosure to establish prior art so that any party may freely build on the concepts.

Contact

Let's talk.

For licensing inquiries, government program interest, or partnership conversations, reach out directly or use the form. All sensitive technical disclosures require a mutual NDA — template available on request.

This form sends your message directly to daniel@harbisonrd.com. Please do not include classified, ITAR-controlled, or export-restricted technical detail in the initial message.