Skip to content

The work between
a result and a product.

Most research stops at a paper. Most development starts at a product.

What we work on

Carbon, process, architecture. What those lines become is not published. It is owned.

Graphene film on a silicon wafer in a process chamber

Graphene electronics process

How a carbon lattice becomes a switch: bandgap, stack, channel, contacts. Whether that path can live next to CMOS — gain, noise, temperature — without pretending a device exists before the process does.

Aligned carbon nanotube forest under electron microscopy

High-purity graphene & interfaces

Graphene as a working surface, not a powder you stir in. Ionic and electronic conductivity, mechanical stability, stress. Purity from 5N to 7N. CVD and thermal-expansion routes, with nanotubes and thin-film carbon beside them.

Plasma-assisted thin-film carbon deposition in a vacuum chamber

Space thermal & semiconductor process

Heat, etch, and lattice damage where gravity is not a given. Photoresist and RIE in microgravity. High-energy particles. Graphene-on-copper frames and ceramic–graphene insulation, modeled for Earth and orbit.

Precision copper and gallium alloy antenna arrays on a test bench

RF architecture research

Bands, beamforming, phased arrays. Copper and gallium alloys. Metamaterial response, measured rather than claimed. Architecture is the work. A radio is not.

How the work proceeds

A question is not a program until an experiment can refute it.

01

Hypotheses

What must be true of the stack, the geometry, the contact — before anyone talks about scale.

02

Capability

Who can actually run it: partners, foundries, material sources. Wishful capacity does not count.

03

Scope

Narrow the question until an experiment can embarrass it.

04

Material lock

One candidate, qualified. Purity, interfaces, process fit.

05

Simulation

Thermal, charge, radiative, structural — into models a CAD tool can use.

06

Fabrication path

Academic bench or commercial foundry. Chosen because it is real.

07

Characterization

Mobility, gain, noise, temperature, optical phase, RF. The data, not the hope.

08

IP

Write down what was done. File what can be defended. Pre-commercial.

Graphene photonic chip on an optical research bench

Graphene phase modulation

Light does not have to be absorbed to be steered. Raise the Fermi level of a carbon sheet and the phase of what passes through it moves — efficiently, and across extraordinary bandwidth.

Electro-refraction

A voltage on graphene changes how it conducts, and therefore how it refracts, without asking the light to pay in loss.

Transparency regime

Past half the photon energy, Pauli blocking leaves the sheet transparent. Phase still shifts. Absorption does not return.

Interferometry

Place that shifter in a Mach–Zehnder and phase becomes a clean amplitude. A data stream, not a blur.

What we file

Patents in graphene, carbon systems, and process. Written to be developed. Not offered as a brochure.

  1. 01

    Mobility of thermal and charge modeling and failure mechanism of CVD graphene in CMOS process integration

    Graphene process behavior, written so a CAD tool can carry it.

  2. 02

    Photoresist masking and exposure using high-energy beams in space and microgravity for semiconductor process migration to space

    Masking and exposure when the floor is not Earth.

  3. 03

    RIE process adaptation in space and microgravity environments

    Reactive-ion etch without the assumptions of a terrestrial bay.

  4. 04

    Lattice damage mechanism and preventive policy for IC process in space under high-energy particle exposure

    What high-energy particles do to a process — and what we refuse to leave to chance.

  5. 05

    Thermal and charge modeling and failure mechanism of ceramic–graphene high thermal conductivity insulation

    From micro-assembly through PBCA: heat, charge, and failure in one model.

  6. 06

    Graphene-on-copper sandwich frame thermal dynamics for HVAC on Earth and space-center orbit

    A thermal sandwich that has to work in a building and over a pad.

Join AR&D

We hire people who can live with an unanswered measurement. Florida, Texas, and Virginia.

Data Analyst

Full-time

Sit with graphene process, thermal, and charge data until the measurement is the story — not the other way around.

Program Analyst

Full-time

Keep IP and pre-commercial programs honest across Florida, Texas, and Virginia. Status without theater.

Executive Operations Coordinator

Full-time

The Bonita Springs office: calendar, travel, correspondence, and the follow-through that makes a decision real.

Administrative Assistant

Full-time

Scheduling, records, and the daily work of the administrative office in Bonita Springs.

Research & Operations Associate

Full-time

Experiments, materials, and documentation — so the program and the bench stay on the same clock.

Material Scientist — Carbon

Full-time

Graphene, nanotubes, thin-film carbon. Process, characterization, and results written tightly enough to file.

Material Scientist — Silicon

Full-time

Silicon process, CMOS, carbon-on-silicon — including the constraints of space and microgravity.

Program Manager

Full-time

Own a line of work from a scoped question to a delivered result, across sites.

careers@appliedresearchanddevelopment.com

AR&D is an equal opportunity employer. We consider applicants without regard to race, color, religion, sex, sexual orientation, gender identity, national origin, age, disability, genetic information, veteran status, or any other protected status. If you need a reasonable accommodation to apply, email careers. Some roles may be limited to U.S. persons under export-control law. Equal opportunity.

Contact

By submitting, you agree to our Privacy Policy and Terms of Use. Do not include confidential or proprietary information belonging to another employer.

Administrative office

26381 South Tamiami Trail
Suite 300
Bonita Springs, FL 34134

General: contact@appliedresearchanddevelopment.com

Careers: careers@appliedresearchanddevelopment.com