Critical components, made from carbon in the USA

Signals, Shields & Sensors Built for the mission

We replace metal with a carbon film. The result is antennas, shielding and heat management that are thinner, lighter and tougher than anything made of copper. Then we build the whole system around it.

Prototypes ship in days Shields like copper at 1/20 the thickness 1/8 the weight of copper Made in Texas
01 — The material

One film does the job of metal. Thinner than paint. Lighter than foil. It won't rust, and it won't break when you bend it.

Cut it into an antenna. Wrap it around a radio to shield it. Lay it under electronics to pull heat away. Paint over it and it disappears.

Carbon ISR conformal antenna element in a laser-cut housing, bench-mounted beside field kit
1/20The thickness of copper for the same shielding.
40×Lighter than aluminum for the same shielding.
1 sheetOf paper. That's how thick our antenna is. The whip it replaces is 2 inches tall.
200×More bends before failure than copper wire.
02 — Capabilities

Four things we build.

Every one arrives as a finished part or a complete system, ready to install.

Conformal antennas

Antennas that stick to the surface

Any band from HF to mm-wave. On vehicles, drones, uniforms or glass. Plug into the radio you already carry.

EMI shielding

Shielding without the metal

Wraps, pouches, tents and liners that block signals as well as copper, at a fraction of the weight.

Thermal mitigation

Heat spread without the weight

Thin layers that pull heat away from packed electronics so they keep running.

Full-system engineering

We build the whole thing

Antenna, housing, electronics and software. One team from your requirement to the field.

RF designMechanical & housingsEmbedded hardwareFirmware & softwareIntegration & test
03 — Field results

Demonstrated, not promised.

Chamber and field results against the incumbent metal hardware, on the platforms operators actually carry, fly and drive.

Anechoic chamberReturn loss, resonance and pattern against copper and aluminum references
Field rangeOpen-field, indoor and vehicle-park testing at a combat development center
OperationalFielded overseas with a special operations partner
Peer-reviewedPublished radiation efficiency parity with copper at 5, 10 and 14 GHz
  • A

    Unmanned ground vehicle, dual-band Wi-Fi / Bluetooth

    Drop-in replacement for the stock antenna on a quadruped UGV, same connector. Latency 20 to 25% lower, outdoor packet loss 50% lower, signal strength up to 41% higher in a parking structure, at under half the weight and a fraction of the cost.

    Customer tested
  • B

    Group 1 UAS, conformal ADS-B dipole

    10 grams and 0.127 mm against an 80 gram, 50 mm blade. No mounting holes, no drag penalty. Estimated 4 to 16% more range on 0.5 to 1.9 kg airframes from weight alone.

    Demonstrated
  • C

    Non-standard vehicles, low-visibility GPS L1 patch

    Equivalent performance to a ruggedized active GPS antenna with zero visual signature and no bodywork on the host vehicle. Chamber tested, range tested, fielded in a combatant command area of responsibility.

    Fielded
  • D

    Wearables, RFID tag antennas

    One-for-one swap for an aluminum inlay in a commercial wristband. Stable reads across body types and orientations in under 1.5 mm total, replacing a 6.35 mm foam spacer stack.

    Customer tested
  • E

    HF / VHF manpack, field-expedient dipole

    0.75 to 1.5 pounds against 5 pounds of wire antenna. Visible at under 10 meters instead of 90 to 150. Survives more than 2 billion flex cycles and does not corrode.

    In development
  • F

    Body-worn antenna with operator shielding

    A conformal meandering dipole laminated into fabric with a carbon reflector layer behind it. The reflector keeps the body out of the pattern and RF out of the body, so the element keeps working where a whip and an unshielded dipole both go dead.

    Demonstrated
04 — Platforms

Where metal cannot go.

Every element starts with a real platform, a real radio and the person who has to carry it.

Carbon ISR evaluation kit in a hard case: conformal antenna elements, coaxial leads and connectors in a cut foam tray
Evaluation kit

Concept to deployable prototype in days

Tell us the radio, the platform and the band. We pattern, laminate, connectorize and ship an evaluation kit, then iterate on your field feedback until it's right.

  • PatterningLaser, no tooling
  • TurnaroundKits in as little as one day
  • ConnectorsTNC, SMA, custom
  • SubstratesFluoropolymer, polyolefin, synthetic paper, fabric
  • ManufacturingDomestic roll-to-roll, Texas
Operator wearing a plate carrier with a Carbon ISR antenna housing mounted on the chest rig
Body-worn

On the operator

Antennas laminated into nylon or aramid, with a reflector layer that protects the wearer and preserves the pattern. No spools of wire, no whip.

Small unmanned aircraft over terrain
Unmanned systems

UAS & UGV

Conformal ADS-B, GPS and datalink elements for small airframes and ground robots. Less weight, less drag, more range, lower radar profile.

Unmarked utility vehicle on a ridge at dusk
Vehicles

Non-standard platforms

Low-visibility GPS, comms and tracking elements that blend into a civilian roofline with no bodywork and nothing to spot.

Operator with a radio overlooking a misty mountain valley
Fixed & space

Structures, optics, orbit

Shielded rooms and tents, transparent elements on glass, and antennas whose geometry holds through orbital thermal cycling.

Front view of a plate carrier with a Carbon ISR antenna housing and coaxial lead routed into the kit
05 — Full-system engineering

A conductor is not a product. We deliver the system: the element, the enclosure it lives in, the electronics it feeds and the software that runs it.

Most material companies hand you a roll. We take the requirement through RF design, mechanical packaging, embedded hardware and software, prove it in the chamber and on the range, and hand back something an operator can mount and use.

  1. 01Define

    Radio, band, platform, environment, signature and weight budget.

  2. 02Design

    Pattern, feed and matching. Enclosure, mount and laminate. Electronics and software.

  3. 03Pattern

    Laser-cut direct from the design file. No tooling, so a redesign costs hours.

  4. 04Build

    Laminate, connectorize, house, populate and program.

  5. 05Test

    Chamber, bench and range against the incumbent hardware.

  6. 06Field

    Operator feedback drives the next iteration, in days.

Scope / 01

Antenna & RF

Dipoles, patches, meanders, arrays and reflectarrays from HF through mm-wave. Impedance matching, feeds, reflector and shielding layers, chamber and network-analyzer validation.

Scope / 02

Mechanical & housings

Enclosures, mounts, laminates and fabric integration designed to fit existing kit, rails and platforms. Sealed and ruggedized where the mission demands it.

Scope / 03

Embedded & software

Radio and sensor integration, control electronics, firmware and the application software that turns an element into a capability on the operator's screen.

06 — Why carbon

The case against copper.

For the engineers: what the film is, what it measures, and why it beats the metal it replaces.

Why carbon / 01

Copper is a liability

The skin effect cuts copper's useful conductivity roughly ten-fold by 5 GHz. It corrodes, it fatigues, and more than half of the world's refining capacity sits with an adversary. Our film is 100% carbon, sourced and made domestically.

Why carbon / 02

Signature is survivability

A field whip is visible at 90 to 150 meters. A conformal carbon element sits a tenth of a millimeter above the surface, adds no drag, needs no mounting holes, and disappears under paint.

Why carbon / 03

Speed is the advantage

A new antenna geometry is a laser file, not a tool. We design, build and test with the operator in the loop and converge on a field-ready element in days, not program cycles.

Typical film properties

Measured on production film. Composition and thickness are tuned per application; transparent variants exceed 90% transmittance.

  • Composition>85% single-walled CNT, 100% carbon
  • Thickness3.5 µm typical, tunable
  • Sheet resistance0.12 Ω/sq
  • ConductivityAnisotropic, up to 10× in process direction
  • Thermal conductivity450 W/m·K
  • Thermal expansionNear-zero
  • Density1.1 g/cm³, 1/8 of copper
  • Tensile strength0.8 GPa
  • Elastic modulus120 GPa
  • UV & weatherNo practical limit; does not oxidize
  • Format24 cm rolls to 200 m, or sheets
  • HandlingBound solid film, non-respirable
07 — Team

Operators. Founders. Engineers.

The people designing your system have carried the kit, built the company and run the line.

Who we are / 01

Special operations & intelligence

Veterans of special operations and the intelligence community who know what signature, weight and a dead link cost downrange. They write the requirement and sit in every design review.

Who we are / 02

Serial entrepreneurs

Founders who have built, scaled and exited technology companies before. They know how to take a material from a lab result to a production line, a quality system and a contract vehicle.

Who we are / 03

Experienced engineers

RF, materials, mechanical, embedded and software engineers, backed by more than a decade of peer-reviewed research on carbon nanotube antennas and a running production line.

Operators in the loopDesign, build and test with the end user, in their environment
IP protectedPatented process; partner designs stay with the partner
Domestic supply chainInputs sourced in the US and allied nations, film made in Texas
Safe by designBound solid film, non-respirable, no loose nanoparticles, no combustible dust
08 — Contact

Tell us about the application.

Bring us the radio, the platform, the band or the problem. We'll come back with a path to an evaluation kit, a system design or a partnership conversation.