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Anderson Enterprise

Engineering the systems that hold under pressure

One engineering division. One doctrine. Intelligent software, autonomous systems and applied engineering — built from first principles in Newark, New Jersey.

Capabilities Government Portal

Operating Division

Anderson Innovations

AEG begins with Anderson Innovations, our technology and engineering division. As our capabilities and resources grow, we intend to expand into additional sectors.

Anderson Innovations

Intelligent software. Autonomous systems. Applied engineering.

Enter division

Programs In Development

Active R&D

Engineering milestones currently moving through the pipeline, published as they mature from bench to field.

Active R&D — V0.1 Blueprint

AEG GRID

A modular smart-power and energy monitoring system: a compact hardware device paired with a live web dashboard that tracks how electricity is used across a lab, workspace or building. Voltage, current, power consumption, energy over time, temperature, battery status and abnormal electrical activity — measured, transmitted, visualized and understood. The first prototype is strictly low-voltage and safely isolated; the roadmap scales to building-wide monitoring.

Sensing

Voltage / Current / Temp

Pipeline

Edge → Backend → Dashboard

Roadmap

GRID 1 → GRID Pro

“Measure. Transmit. Visualize. Understand. Improve.”

Anderson Innovations — GRID Program Philosophy

Anderson Innovations

What GRID Monitors

Raw measurements, turned into operational clarity

Electrical

Voltage and current on a safe low-voltage test system, with power consumption and energy usage estimated and accumulated over time.

Environmental & System

Temperature, device status, uptime, connection state and battery level — every reading timestamped with a clear unit for historical analysis.

Events & Alerts

Threshold alerts and abnormal electrical activity surface immediately, converting raw sensor streams into actionable signal.

Live Statistics

A real-time dashboard shows current load, energy today and this week, system temperature, connected devices and fleet status at a glance.

System Architecture

Sensors → Controller → Network → Backend → Dashboard

Sensing & Control

Isolated low-voltage sensors feed a microcontroller development board that samples, timestamps and packetizes every measurement.

Backend & Data

Measurements stream over Wi-Fi to a small service that stores the time series — the network treated as transport, the data model built for later analytics.

GRID Dashboard

A web interface renders live readings, history and device status: current load as a percentage of threshold, daily and weekly energy, temperature and active alerts.

Physical Product

A simple prototype enclosure first, then a full CAD-designed housing — with a long-term path to a custom PCB and documented validation.

Development Roadmap

Phase-gated from bench to pilot

Phase 0–1 — Research & Proof of Concept

Define the low-voltage test setup, sensors, data model and requirements; then read one or more sensors and display live values locally.

Phase 2–3 — Connected Prototype & Dashboard

Transmit measurements to a backend; deliver live charts, device status and historical data in the GRID dashboard.

Phase 4–5 — Enclosure & Validation

CAD model and physical enclosure, followed by repeatable tests, error tracking and full documentation.

Phase 6 — Pilot

A small, controlled deployment with permission — the first fielded GRID node.

Product Line

One platform, scaling by module

GRID 1 & GRID 2

GRID 1 is the basic energy monitor; GRID 2 adds multi-device monitoring and improved analytics.

GRID 3

Building-scale monitoring with modular sensor nodes distributed across a facility.

GRID Pro

Commercial and industrial monitoring: team accounts, reporting, alerts and integrations.

Long-Term Hardware

Professionally designed electronics, a custom PCB, a refined enclosure and documented validation — a manufactured product, not a demo.

Dashboard Concept — Interface Preview

AEG GRIDPower Status — Online

Current Load

82%

Today

12.4 kWh

This Week

78.2 kWh

System Temperature

31°C

Connected Devices

Laboratory PC
Lighting
Equipment

Status

Normal

0 active alerts

Interface values shown are illustrative examples, not target specifications.

Program Documentation

AEG GRID — Project Blueprint V0.1PDF — Download / PreviewPDF

Program Footage

Video — Reserved

Bench footage — reserved for the first powered sensor-to-dashboard demonstration.

High contrast black and white photograph of a high-speed first-responder multirotor drone with a sensor gimbal and custom avionics enclosure

Active R&D — Pipeline

Drone First Responder (DFR) Platform

A high-speed, software-defined first-responder multirotor engineered to reach a 911 scene inside a 3-to-5-mile municipal radius in under two minutes. High-voltage propulsion, custom Shapr3D avionics enclosures, and Python/C++ flight scripts that interface directly with computer-aided dispatch — built for B2G deployment out of Newark.

Arrival Time

< 2 min / 3–5 mi radius

Propulsion

12S High-Voltage

Dispatch

CAD-Integrated Auto-Launch

“By the time a unit rolls, the drone has already assessed the scene. That is time and safety bought — not spent.”

Anderson Innovations — Program Engineering

Anderson Innovations

The DFR Advantage

Metrics that matter to command staff

Unmatched Arrival Times

By utilizing a high-voltage propulsion setup, the drone covers a 3-to-5-mile municipal radius to arrive on scene in under two minutes — buying commanders time and safety before any unit arrives.

Resource Allocation

Aerial overwatch lets dispatchers assess threats immediately. In active municipal DFR programs, a significant percentage of 911 calls — sometimes up to 64% — are cleared by the drone's live feed alone, without ever putting a human officer in harm's way.

High-Voltage Hardware & Custom Avionics

Engineered for extreme thrust and survivability

Propulsion

A 12S high-voltage battery architecture delivers the extreme motor torque necessary for rapid acceleration and sustained high-speed transit across a populated municipality.

Precision Enclosures

Custom-modeled Shapr3D enclosures use exact millimeter CAD measurement buffers to tightly weather-seal and protect sensitive avionics, secondary microcontrollers and micro-electronic bus wiring from the intense vibrations of high-thrust flight.

Software-Defined Tactical Autonomy

Flawless logic over a populated municipality

Automated Dispatch

Python and C++ flight scripts interface directly with computer-aided dispatch (CAD) systems to trigger automatic launches the exact moment a 911 call is logged — no operator required to get airborne.

Dynamic Routing

Decision-engine logic on the flight controller dynamically calculates the safest, most efficient trajectory to the target, avoiding structures and no-fly zones in real time.

Enterprise Logistics & Procurement

Built for B2G deployment

Domestic Engineering

Hardware engineered out of Newark provides an ideal strategic footprint to deploy rapidly across major East Coast municipal departments.

Federal Compliance

NDAA-compliant and ready for small-business government contracting pipelines via SAM.gov, positioning the platform for direct municipal procurement.

Program Footage

Video — Reserved

Flight footage — captured during municipal field trials.

High contrast black and white photograph of a microcontroller breadboard prototype with a 3D printed enclosure

Hardware Case Study — Bench

Localized Voice-Reactive Assistant

An embedded hardware case study taken from breadboard to enclosure: custom microcontroller circuits with instrumented power rails, wake-word and command handling executed locally rather than streamed to a third-party service, and a parametric 3D-printed enclosure whose cutouts, standoff heights and microphone porting are computed from a documented tolerance stack-up. The program exists to prove the bridge between our software core and physical manufacturing.

Compute

Microcontroller / On-Device

Enclosure

Parametric CAD + Additive

Data Posture

Local, No Cloud Capture

“If the enclosure is designed after the electronics are frozen, you have already lost the margin. The housing should be a computed consequence of the board.”

Anderson Innovations — Hardware Engineering

Anderson Innovations

Program Footage

Video — Reserved

Bench footage — reserved for enclosure fit and acoustic validation runs.

Systems Integration

Resilient architecture

Select a layer to trace how edge hardware, decision engines, platform services and operator surfaces communicate.

Edge Layer

Embedded Hardware & Microcontrollers

Sensors, firmware and constrained compute at the platform. Bounded-latency execution, deterministic scheduling and full autonomy when the link is gone.

Multispectral / thermal payloads
GNSS + IMU time synchronization
Onboard perception and replanning

Core Technologies

The deep-tech core

Applied Mathematics & Decision Engines

Estimation, optimization and control theory implemented as production decision engines — provable behavior, bounded latency, auditable outputs.

Embedded Hardware & Microcontrollers

Board-level design and firmware for constrained, safety-relevant environments where power, thermal and timing budgets are non-negotiable.

Autonomous Software Pipelines

Perception, planning and tasking pipelines built for deterministic execution, continuous testing and rapid revalidation at the edge.

Parametric CAD & Prototyping

Parametric design systems that convert requirements into manufacturable geometry, then into test articles in weeks rather than quarters.

Company Doctrine

Four governing principles

Foundation

A ground-up commitment to building engineering capability from first principles rather than assembling it from vendors.

Integration

Connecting sensors, platforms and decision-makers into single resilient architectures across air, land, sea and orbit.

III

Assurance

Mission assurance is the product. Programs work when they matter most — on time, on budget, and under audit.

Commercialization

Converting advanced mathematics and software R&D into non-dilutive revenue that funds the next generation of hardware.

Partnership requests & institutional inquiries

Request a briefing

Assurance

Standards & compliance posture

Compliance portal

01NIST SP 800-171Controlled unclassified information controls

02ITAR / EARExport-controlled technical data handling

03FAR / DFARSAcquisition regulation and clause flow-down

04ISO 9001 AlignedQuality management practice alignment

05Configuration ControlTraceable requirements and verification evidence

06Supply Chain AssuranceProvenance-checked components and firmware

Quarterly Briefing

Investor & Technology Briefing

A quarterly summary of program milestones, R&D publications and capital strategy, distributed to partners, institutional contacts and prospective investors.

Quarterly only. No sales contact, no list sharing.