National workforce initiative

The next civil rights gap is infrastructure access.

AARI trains HBCU students and underrepresented learners to operate the full AI infrastructure stack, from energy and chips to data centers, GPUs, edge robotics, quantum systems, and production AI.

Focus

Infrastructure-first AI, not app-first AI.

Cohort Base

HBCU students, AUC learners, and underrepresented technical talent.

Outcome

Operators who can run the systems underneath modern AI.

The AARI Infrastructure Stack

AI is not one layer. It is a living stack.

AARI teaches the systems beneath AI, from power and compute to edge deployment and embodied robotics. As students move through the stack, they learn how each layer shapes what can be built.

Infrastructure Access Statement

Students cannot become operators in rooms they never enter.

AARI connects AUC and HBCU learners to labs, data centers, cloud systems, robotics work, partner workshops, and demo environments so the infrastructure behind AI becomes visible, teachable, and buildable.

Students observing live data center systems Morehouse technical lab session
AARI in Action

We are not building a brochure. We are building operators.

From student workshops and corporate site visits to robotics labs, edge AI development, and Smart Illuminating Helmet sessions, AARI gives students hands-on access to the infrastructure, tools, and rooms where the future is being built.

AUC students visiting Microsoft for applied AI and infrastructure exposure

AUC students visiting Microsoft for applied AI and infrastructure exposure

AARI student cohort at Microsoft Atlanta

AARI student cohort at Microsoft Atlanta

Students in technical lab sessions at Morehouse

Students in technical lab sessions at Morehouse

Garage Data Center work session with students

Garage Data Center work session with students

Students reviewing live systems inside the Garage Data Center

Students reviewing live systems inside the Garage Data Center

Smart Illuminating Helmet product review session

Smart Illuminating Helmet product review session

AARI partner and student workshop

AARI partner and student workshop

Student-led discussion during Microsoft session

Student-led discussion during Microsoft session

AARI leadership presenting applied AI infrastructure work

AARI leadership presenting applied AI infrastructure work

From Exposure to Execution

AARI turns access into technical agency.

The pipeline is intentionally sequential: students first see real technical environments, then learn the stack, build systems, prove the work, and move toward market outcomes.

01

See the Room

Students visit labs, data centers, corporate campuses, and technical environments.

02

Learn the Stack

Students study cloud, robotics, edge AI, infrastructure, networking, and quantum foundations.

03

Build the System

Students work on applied labs, demos, and product-oriented projects.

04

Prove the Work

Students present, demo, benchmark, and explain what they built.

05

Enter the Market

Students move toward internships, jobs, ventures, research, and leadership roles.

Building the Operator Pipeline

A bright, AUC-rooted model for infrastructure fluency.

AUC-centered

Built from Atlanta’s HBCU talent base outward.

Cloud-to-edge

Students connect cloud systems to devices, robotics, and live environments.

Lab-based

Robotics and AI infrastructure labs reinforce hands-on execution.

Partner-exposed

Students see corporate, data center, and ecosystem pathways early.

Demo pipeline

Students build toward visible demos, technical explanations, and market-ready proof.

Problem

AI equity cannot stop at prompting.

Most AI education teaches students to use apps, prompts, and demos. But production AI depends on infrastructure: compute, cloud, networking, data centers, security, edge devices, robotics, and energy. If students do not understand the stack underneath AI, they remain consumers instead of operators.

Consumer path

Prompting tools without control over systems, budgets, or deployment environments.

Operator path

Understanding compute, uptime, security, edge hardware, data flows, and system ownership.

Our Operating Model

Energy → Chips → Infrastructure → Models → Applications

This is the AARI learning chain. Students learn how AI systems are powered, built, deployed, secured, optimized, and operated.

01

Energy

Power systems, efficiency, resiliency, and the reality that compute starts with energy.

02

Chips

GPU and accelerator awareness, edge hardware, silicon constraints, and performance tradeoffs.

03

Infrastructure

Linux, networking, cloud, containers, security, observability, and the systems that keep AI alive.

04

Models

Inference, deployment, optimization, guardrails, and model operations in real environments.

05

Applications

Robotics, edge AI, automation, and production workflows where systems meet the real world.

Programs

Our core training lanes

AI Infrastructure & Data Centers

Compute, networking, power, storage, systems operations, and the environments where production AI actually runs.

Edge AI & Physical AI

Jetson systems, sensor fusion, local inference, and deployment constraints outside the cloud.

Robotics & Autonomous Systems

Robotics control, computer vision, autonomy pipelines, and systems integration from hardware to behavior.

Quantum-Classical Computing

Quantum literacy, hybrid workflows, and operator-level exposure to the next layer of compute.

Cloud, Security & Production AI

Containers, cloud systems, guardrails, identity, observability, and deployment discipline.

Proof

From demos to operating systems

AARI is not built around speculative brand language. It is built around labs, workshops, systems exposure, and operator training.

Physical AI project

Smart Illuminating Helmet

AARI project work includes physical AI concepts where sensors, safety logic, and embedded intelligence are treated as operational systems, not science fair artifacts.

Edge deployment

Jetson edge inference

Students gain exposure to local inference paths, edge constraints, and hardware-aware deployment decisions on NVIDIA Jetson-class systems.

Infrastructure exposure

OpenShift cluster access

Cluster exposure is used to teach containerized systems, orchestration vocabulary, and what operational compute looks like beyond classroom abstractions.

Quantum literacy

Azure Quantum Lockbox

AARI workshops include quantum-literacy exercises that connect hybrid systems thinking to security, cloud, and next-generation compute workflows.

Workshop model

Microsoft Garage workshop

Workshop delivery has included Microsoft Garage-style environments where students move from concept to working system with direct technical support.

Training pipeline

AUC student training

AARI’s model centers AUC and HBCU learners, with Morehouse and Atlanta-based workforce pathways treated as the launch point for operator development.

Ecosystem / Partner Network

Our Partners

AARI groups partners by the role they play in the infrastructure pipeline: facilities, cloud, AI compute, robotics, academics, community, and giving platforms.

Proof, Not Theater

Real exposure, real tools, real technical development.

AARI is built around real exposure, real tools, and real technical development. Students do not just hear about AI, robotics, cloud, edge computing, and infrastructure. They see it, touch it, question it, and build with it.

Impact

Early traction

Early indicators from AARI's emerging AI infrastructure workforce model.

Students trained

40+

Distinct students reached through AARI workshops, labs, and cohort programming.

Workshops delivered

3+

Hands-on technical sessions delivered across physical AI, cloud, edge deployment, and quantum literacy.

Industry partners engaged

10+

Organizations engaged through workshops, technical conversations, workforce planning, or program development.

First student placement

$115K

First documented operator outcome from the early AARI model.

Active technical projects

5

Current workstreams across Smart Illuminating Helmets, edge AI, robotics, quantum lockbox, and AI infrastructure/data center curriculum.

Campus / lab footprint

100K+ sq ft

Interim robotics and AI workforce training footprint tied to Summer 2026 activation, plus AUC lab-based programming.

Metrics reflect current internal tracking and partner-facing program development as of 2026. Formal annual reporting is in development.

Leadership

Leadership Team

Nolan S. Code

Nolan S. Code

Founder & CEO

Morehouse College Alumnus. MBA. Systems infrastructure and platform strategy.

LinkedIn
Dorian Person

Dorian Person

CTO

Infrastructure engineering. Distributed systems architecture.

LinkedIn
David Taylor

David Taylor

COO

Platform operations. Institutional partnerships. Community strategy.

LinkedIn
Leslie Nicholson

Leslie Nicholson

VP, Partnerships

Enterprise partnerships. Institutional development. Strategic alliances.

LinkedIn

Advisory Board

Dwayne Joseph, PhD

Dwayne Joseph, PhD

Strategic Advisor

Dr. Joseph brings deep expertise in STEM education infrastructure and institutional partnerships, providing strategic guidance on academic integration and platform scaling.

Carlotta A. Berry, PhD

Carlotta A. Berry, PhD

Robotics & Systems Engineering Advisor

Dr. Berry brings decades of robotics research and engineering education experience, ensuring technical rigor and depth in the platform's applied robotics and systems curriculum.

Board of Directors

We're raising $10M to scale the infrastructure layer that the AI talent market requires.

Nolan S. Code

Nolan S. Code

Founder & CEO

Dwayne Joseph, PhD

Dwayne Joseph, PhD

Board Advisor

Carlotta A. Berry, PhD

Carlotta A. Berry, PhD

Board Advisor

Governance

Built for trust.

AARI is a nonprofit organization building transparent governance, responsible fiscal operations, student-centered programming, and measurable workforce outcomes.

501(c)(3) status

Registered nonprofit standing with charitable-purpose programming and donor accountability.

Board oversight

Governance structure designed for fiduciary review, executive accountability, and policy direction.

Fiscal transparency

Program growth is tied to documented budgets, scoped initiatives, and partner reporting expectations.

Student safety

Hands-on training environments require clear conduct standards, supervision, and duty-of-care practices.

Partner reporting

Partners should expect milestone updates, scope clarity, and outcome framing tied to actual program work.

Annual impact reporting

Impact should be reported in cohorts, labs, placements, projects, and operator outcomes, not slogans.

Funders

Why fund AARI?

AARI sits at the intersection of AI infrastructure, HBCU talent, workforce development, robotics, edge computing, and national competitiveness.

Student operator fellowships

Direct support for cohort stipends, scholarships, and the time required for students to train as operators rather than casual participants.

Lab equipment and edge AI hardware

Jetson-class systems, robotics components, networking gear, test infrastructure, and the tools required for real deployment practice.

Curriculum, technical staff, and program operations

The people, documentation, and operating support required to convert a promising cohort into a repeatable workforce pipeline.

Field Notes

Latest work from the AARI ecosystem.

AARI’s story is told through workshops, lab work, student demos, and partner exposure, not static claims. These field notes show where the operator pipeline is moving next.

AARI students at Microsoft Atlanta

Workshop

Microsoft Garage student workshop

Students engaged the systems mindset behind AI, cloud, quantum literacy, and applied technical execution.

Smart Illuminating Helmet development review

Physical AI

Smart Illuminating Helmet development

The SIH workstream helps students connect sensors, edge intelligence, safety, and real product constraints.

Garage Data Center lab work

Infrastructure

Garage Data Center lab work

Students see how compute environments, operations, and data center realities shape production AI.

Quantum

Quantum study group

AARI’s quantum pathway introduces hybrid thinking, compute literacy, and future-ready technical vocabulary.

Learn more

Curriculum

Robotics and edge AI curriculum

Hands-on training connects robotics, inference, data, and deployment discipline into one learning model.

View programs

Demo Pipeline

Upcoming demo day / pitch competition

The next milestone is giving students a visible room to demo, explain, and defend what they built.

Partner with AARI

Call to Action

Help AARI build the infrastructure access layer for Atlanta’s next operators.

Contact

Contact AARI

For partnership, sponsorship, student programming, media, volunteer, or community inquiries, please use the form below.

AARI does not accept unsolicited fundraising, investor-introduction, lead-generation, SEO, marketing, outsourced development, or unrelated vendor solicitation emails sent directly to staff addresses.

Messages that do not relate to AARI programming, partnerships, student opportunities, confirmed organizational business, or community engagement may not receive a response.

Direct emails scraped from this website or other public sources may be filtered, blocked, or reported as spam.

Partnership inquiry form

Partner with AARI

Serious inquiries only. AARI reviews partnership, funding, student, and media inquiries based on mission fit, timing, and capacity.

By submitting this form, you agree to be contacted by AARI regarding your inquiry. We use analytics to understand site traffic and improve programs. We do not sell contact information.

Funder inquiry form

For funders and institutional partners

Use this form if you are exploring support for AI infrastructure workforce development, HBCU talent, robotics, edge AI, quantum education, or data center workforce programming.

By submitting this form, you agree to be contacted by AARI regarding your inquiry. We use analytics to understand site traffic and improve programs. We do not sell contact information.