Ocean Enabled Energy — OEE-S2S / LH2 / P2C

Ocean Enabled Energy is a clean infrastructure platform designed to support global access to safe water and clean energy.

The system concept connects Sea Water to Safe Water, offshore or nearshore clean water production, and Production to Consumer clean fuel logistics. Its long-term vision is to create distributed ocean-based infrastructure capable of producing safe water and supporting liquid hydrogen pathways for coastal communities, maritime operations, and future clean-energy corridors.

This platform is positioned as one of the largest strategic pillars of TPG Cleantech: clean water, clean fuel, and ocean infrastructure in one integrated roadmap.

Opposed Cylinder Engine — OCE

OCE is a new internal combustion engine architecture designed to improve energy efficiency by reducing dead weight and minimizing auxiliary mechanical parts.

The concept focuses on extracting more useful output from the combustion cycle by simplifying the mechanical pathway and reducing structural losses. Instead of adding complexity to chase marginal gains, OCE aims to remove unnecessary mass and allow more of the system to contribute directly to power delivery.

Core principle: less idle mass, more useful work.

Individual Traction Node — ITN

ITN is an in-hub motor architecture designed to maximize traction output and regenerative braking at the wheel level.

By distributing propulsion directly to each wheel, ITN enables a more intelligent power architecture with less dependence on heavy centralized drivetrains. This creates the potential for lighter vehicle platforms, more responsive traction control, and improved energy recovery.

The long-term advantage is a vehicle architecture where power distribution becomes more electrical, modular, and software-defined.

High-Efficiency Generator — IEG

IEG, originally developed under the concept name Infinity Generator, is a high-efficiency generator architecture based on the principle that every gram must contribute.

The design philosophy is to reduce passive mass and improve the relationship between structure, magnetic interaction, rotation, and useful electrical output. IEG is intended to support future clean-energy systems where weight, efficiency, and durability are critical to economic viability.

Engineered Energy Vehicle — EEV

EEV is a vehicle architecture doctrine based on tailored power design for each specific vehicle model.

Rather than applying one generic drivetrain logic across all platforms, EEV treats each vehicle as a dedicated energy system. The propulsion, storage, generation, transmission, and control strategy are configured around the vehicle’s mission profile, operating environment, and performance target.

The result is a platform philosophy for near-zero-emission mobility with optimized energy flow.

Dual Burner Venturi — DBV

DBV is a dual-burner venturi propulsion concept designed to enhance flame behavior and thrust logic through a shared nozzle architecture.

The system uses a dual ignition and burner configuration, including a 45-degree ignition mode that transitions toward a 0-degree operating flow after startup. This approach is intended to improve flame stability, energy concentration, and thrust performance inside a venturi-based propulsion pathway.

DBV is part of TPG Cleantech’s broader research into multi-regime jet and advanced propulsion systems.

Hydrogen-Fueled Turbo Fan with Steam-Assisted Jet — HTF-SAJ

HTF-SAJ represents a family of hydrogen-fueled aviation propulsion concepts, including turbo fan, turbo shaft, and turbo prop configurations with steam-assisted combustion or jet support.

The core concept is based on isolated fuel injection with angular timing, allowing conventional gas-turbine logic to transition toward hydrogen operation. Steam assistance is introduced as a combustion and thermal-management pathway to support cleaner operation, reduce combustion stress, and improve hydrogen integration.

This program targets the long-term transformation of aircraft propulsion from hydrocarbon-based systems toward hydrogen-compatible architectures.

Cascade Blown-Top Thrust — I-Ship

Cascade Blown-Top Thrust — I-Ship is an advanced aerospace configuration exploring vertical takeoff capability and high-speed transition toward Mach-plus flight models.

The concept investigates how lift, thrust redirection, cascade airflow, and transformable aircraft geometry may support a new class of vertical-to-high-speed mobility systems. It remains a frontier-stage research pathway and is evaluated through physics logic, aerodynamic feasibility, weight penalties, and propulsion integration constraints.

Heavese ID

Heavese ID is an advanced identity infrastructure concept designed to carry personal information, access logic, and internal reflexes across authorized environments.

The goal is to move beyond static identification toward an intelligent identity layer that can interact with digital and physical systems securely. In future infrastructure, identity will not only verify who a person is; it will help systems understand permissions, safety logic, personal preferences, and contextual access.

Heavese ID sits at the intersection of trusted identity, intelligent access, and human-centered digital infrastructure.

Technology Philosophy

Across all programs, our design philosophy is simple:

Every component must justify its weight.
Every energy pathway must serve useful output.
Every system must be designed around its mission, not around legacy assumptions.

TPG Cleantech focuses on high-risk, high-impact research where conventional engineering has reached diminishing returns. The objective is not only to improve existing systems, but to redefine how energy, motion, identity, and infrastructure can work together in the next industrial cycle.

Strategic Vision

The Genarch ecosystem is designed as a long-term innovation platform. TPG Cleantech contributes the core engineering concepts, while Genarch provides the broader strategic pathway for commercialization, partnerships, intellectual property development, and deployment.

Our ambition is to build technologies that can support:

clean energy independence,
near-zero-emission mobility,
ocean-based infrastructure,
hydrogen-enabled transport,
lighter and smarter vehicle platforms,
and trusted digital access systems.

The world does not need another incremental upgrade dressed in a shiny brochure. It needs engineering platforms that can survive physics, economics, and real-world deployment.

That is where our work begins.