Integrated Vehicle & Embedded Engineering

Engineering Beyond the Off-the-Shelf Limit

Infinite Limit Engineering develops modern vehicle technology without the closed ecosystems, restricted functionality, or traditional motorsport price. From independent builders to professional programs, ILE delivers deeply integrated electronics, firmware, interfaces, harnesses, and mechanical systems engineered as one complete platform.

01 / CAPABILITY

Maximum Function per System

Every platform is developed to replace compromise with useful capability: dense control, meaningful diagnostics, modern connectivity, and features normally reserved for much newer or far more expensive vehicles.

02 / INTEGRATION

One Team Across the Full Stack

System architecture, circuit design, PCB layout, firmware, UI, communications, harnessing, mechanical packaging, scanning, composites, and prototype delivery can all be developed under one roof.

03 / OWNERSHIP

Configurable, Serviceable, Openly Integrated

ILE systems are built to be understood, diagnosed, repaired, upgraded, and integrated without forcing the owner into a proprietary dealer-only interface.

Prototype Product Platforms

Modern Intelligence for Any Vehicle

These active development programs form a connected ecosystem designed to bring contemporary control, diagnostics, access, and driver information to platforms that were never originally equipped to support them.

Representative high-performance vehicle powertrain Active Prototype

Vehicle Power & Control

28-Channel Software-Defined Automotive PDM

A high-density solid-state power and vehicle-control platform developed to eliminate the usual tradeoff between price, output capability, switching performance, configurability, and diagnostic depth.

Why It Exists

Conventional motorsport PDMs often provide limited fault information, fixed channel behavior, expensive ecosystem dependencies, or insufficient control for complex high-output builds. The ILE platform treats power distribution, vehicle logic, protection, and diagnostics as one system.

Outputs
28 channels
Control
20 kHz PWM
Diagnostics
4 MSPS capture
  • Distributed high-current architecture with localized protection
  • Per-channel current, voltage, thermal, and fault telemetry
  • High-speed event capture for black-box and oscilloscope-style diagnostics
  • Configurable vehicle logic and networked control without dealer-only tools

ILE Engineering Scope

System architecture, power electronics, mixed-signal design, multilayer PCB development, embedded firmware, vehicle networking, protection logic, diagnostic strategy, thermal design, mechanical packaging, and prototype validation.

Power ElectronicsVehicle ControlCAN Fault CaptureCustom PCB
Discuss Power & Control
Representative motorsport steering wheel and driver controls Active Prototype

Driver Interface & Vehicle Access

Open-Integration Smart Steering-Wheel Hub

A configurable driver-control and display platform designed to communicate across multiple vehicle protocols, operate independently, or pair directly with the UVCU as part of a unified vehicle ecosystem.

Why It Exists

Existing smart wheels are commonly locked to one ECU, one display family, or one proprietary configuration workflow. ILE is developing a broadly compatible hub that combines at-speed information, physical controls, vehicle configuration, and secure passive-access functions.

Display
5-inch · 1000 nit
Connectivity
CAN · UWB · BLE
Integration
Standalone · UVCU
  • Sunlight-readable real-time UI built around at-speed readability
  • Immediate display of tuning and driver data, including AFR/lambda
  • Physical encoders, buttons, paddles, shift lighting, and warning outputs
  • UWB-based passive keyless entry and start when paired with the UVCU
  • BLE configuration without a proprietary dealer interface

ILE Engineering Scope

Electronics architecture, PCB design, embedded firmware, graphical UI, vehicle communications, wireless configuration, access-control integration, illuminated controls, enclosure design, and application-specific packaging.

Real-Time UICANUWB PKE BLE ConfigurationDriver Controls
Discuss Driver Interfaces

Proven Engineering Delivery

Distributed Control & Large-Scale Integration

ILE experience extends beyond individual prototypes into successfully deployed multi-node control systems and large, serviceable electrical assemblies built for industrial-scale equipment.

Representative industrial control cabinet with interconnected electronic modules Actively Deployed

Distributed Embedded Control

Embedded Industrial Control

A purpose-built distributed control system comprising of interconnected nodes across differing hardware designs. Each node executes local real-time logic while coordinating with neighboring modules and a central host.

Why It Matters

The distributed architecture places the required combination of analog acquisition, digital inputs, and controlled outputs close to each function. This reduces centralized complexity while allowing each module to remain purpose-specific, autonomous, network-aware, and replaceable.

Architecture
7 connected nodes
Hardware
4 module designs
Deployment
Hundreds shipped
  • Local decision-making with coordinated node-to-node communication
  • Mixed analog, digital-input, and output configurations by module purpose
  • Central host integration without sacrificing local autonomy
  • Application-specific fault handling, state control, and diagnostics
  • Successfully transitioned from design through repeated field deployment

ILE Engineering Scope

Distributed-system architecture, four purpose-specific PCB designs, embedded firmware, inter-node protocols, host integration, mixed-signal acquisition, I/O control, fault logic, documentation, bring-up, and deployment support.

Distributed ControlMixed Signal Host IntegrationIndustrial Networking
Discuss Embedded Control
Representative technician building a complex electrical wire harness Actively Deployed

Harness Design & Fabrication

Modular Harness Systems

Large-scale electrical harness systems designed to encompass the complete functionality of industrial and automotive systems, with thousands of feet of wire and hundreds to thousands of documented connection points.

Why It Matters

Monolithic equipment wiring turns a single damaged branch into extended downtime and difficult troubleshooting. ILE architectures divide complex systems into documented, replaceable modules so damaged sections can be isolated and exchanged quickly without rebuilding the complete assembly.

Conductor Scale
Thousands of feet
Connections
Hundreds to thousands
Delivery
Design or turnkey build
  • Full electrical architecture for complex automated test equipment
  • Modular branches optimized for rapid repair and field replacement
  • Controlled routing, connectorization, labeling, and service access
  • Complete schematics, pin maps, assembly data, and maintenance documentation
  • Available as design-only support or a fully built and documented system

ILE Engineering Scope

Requirements capture, system partitioning, conductor and connector specification, harness architecture, schematics, documentation, routing, fabrication planning, complete assembly, inspection, and integration support.

Harness ArchitectureTurnkey Fabrication Modular ServiceDocumentation
Discuss Harness Systems

Expanding Vehicle Ecosystem

Displays, Data & Trackside Connectivity

Current concept and prototype programs extend the ILE ecosystem from the driver's sightline to the pit wall while retaining open integration and useful diagnostic access.

Representative race-car cockpit and digital driver display Concept Development

Displays & Vehicle Data

Configurable Digital Instrument Cluster

A custom display platform intended to translate high-rate ECU and chassis data into clear gauges, contextual warnings, trends, and diagnostic information tailored to the vehicle and the way it is used.

Why It Exists

Generic displays rarely integrate cleanly into older vehicles or present data according to the driver's priorities. The ILE concept combines modern display capability with application-specific graphics, warning behavior, physical packaging, and broadly configurable vehicle data.

Data
ECU · chassis · UVCU
Behavior
Context-aware
Packaging
Vehicle-specific
  • Prioritized warnings based on operating state and severity
  • Configurable street, track, tuning, and diagnostic views
  • Integrated trends and logging instead of display-only instrumentation
  • Mechanical integration designed around the original vehicle architecture

ILE Engineering Scope

Vehicle-data mapping, interface architecture, graphical design, warning-state logic, logging strategy, embedded firmware, communications, enclosure development, and scan-based dashboard integration.

Custom UIVehicle DataWarning Logic Scan-Based Integration
Discuss Vehicle Displays
Representative track vehicle for long-range telemetry development Active Prototype

Telemetry & Communications

Long-Range Trackside Telemetry

A pit-to-car telemetry architecture designed to deliver the vehicle channels that matter in real time while preserving higher-rate data locally for detailed analysis after the session.

Why It Exists

Circuit-scale links cannot transmit every vehicle channel at logging speed. The ILE approach prioritizes critical live information, monitors link quality, and synchronizes trackside visibility with local high-rate recording rather than sacrificing diagnostic detail.

Link
Long-range RF
Source
Vehicle networks
Strategy
Live + local
  • Bandwidth-aware prioritization of critical channels and alerts
  • Link-health monitoring and defined loss-of-signal behavior
  • Local high-rate logging synchronized with trackside data
  • Base-station presentation designed for useful pit-side decisions

ILE Engineering Scope

Telemetry architecture, vehicle-network gateway design, embedded firmware, RF integration, data prioritization, local logging, synchronization, base-station software, UI, and system validation.

RF TelemetryVehicle Gateway Data LoggingTrackside UI
Discuss Telemetry

Consulting & Custom Development

One Partner from Initial Idea to Working Hardware

Engagements can begin with an early concept, an existing product that needs improvement, or a complete set of requirements. ILE can solve one focused engineering problem or deliver a multidisciplinary functional prototype.

Electronics & Software

Architecture through validation: custom circuits, PCB layout, embedded firmware, communications, graphical interfaces, data acquisition, controls, diagnostics, and adaptation of existing hardware or software.

Mechanical & Physical Integration

Geometry through finished component: 3D scanning, reverse engineering, CAD, enclosures, additive-manufactured parts, composite tooling, and complete composite panels developed around the real installation.

Harnessing & Complete Systems

Design-only or turnkey delivery: electrical architecture, modular harness design, documentation, fabrication, system integration, bench testing, and functional prototype commissioning.

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