COBALT H₂ / TECHNOLOGY

Hydrogen-Assisted Combustion for Diesel Engines.

COBALT H₂ explores hydrogen-assisted operation in diesel engines under real operating conditions. Integration strategy is evaluated per engine type, equipment profile, and duty cycle, with measurement and verification designed to support transparent technical decisions.

Evaluate Your Diesel Fleet How it works

How Hydrogen-Assisted Combustion Works

Diesel remains the primary fuel. A controlled hydrogen supplement may be introduced alongside intake air, and the effect on combustion behavior and operating outcomes is evaluated for each specific engine platform and use case. Integration design, controls, and safety boundaries are reviewed case by case.

Diesel Fuel

Primary fuel input

Intake Air

Combustion air stream

Hydrogen Assistance

Controlled supplementary input

Independent inputs evaluated together

Diesel Engine

Engine-specific review of operating behavior across load, duty cycle, and control strategy.

Monitored Operating Data

Instrumentation records operational context for transparent baseline and pilot comparison.

Conceptual representation only. Hardware architecture, controls, and safety measures require project-specific engineering review before deployment.

System Overview

Hydrogen Supply

Proposed source and handling strategy reviewed against project conditions and operational constraints.

Delivery & Control Interface

Flow management and control logic adapted to engine behavior and target operating envelope.

Diesel Engine

Existing platform assessed for compatibility, baseline condition, and integration risk factors.

Measurement Instrumentation

Data collection strategy for baseline, pilot operation, and transparent post-review analysis.

Final configuration is always subject to technical review based on engine platform, equipment constraints, operating profile, and local requirements.

Applications

Heavy-Duty Trucks

Long-haul and regional freight operations where route profile, load, and fuel quality vary across real operating contexts.

Agriculture

Seasonal machinery fleets with mixed workloads, intermittent operating patterns, and diverse maintenance conditions.

Industrial Generators

Stationary power generation environments requiring duty-cycle review and instrumentation-driven validation.

Marine Engines

Commercial and working vessels where application profile, operating hours, and maintenance protocols influence deployment.

Mining

High-demand engine applications in variable terrain and operating cycles with strict site-specific review requirements.

Integration planning includes engine type, equipment architecture, and duty-cycle review, with regional execution focus across Argentina and broader Latin American industrial operations.

Integration starts with compatibility.

Engine condition and control architecture

Baseline engine status, control systems, and operating logic are reviewed before any integration plan is defined.

Installation space and interfaces

Available physical space, routing paths, and connection interfaces are assessed for practical implementation.

Operating conditions and duty cycle

Load patterns, ambient conditions, and duty-cycle realities are documented to guide pilot design.

Installation safety review before pilot

Safety boundaries, procedures, and implementation controls are reviewed prior to any controlled pilot activity.

Measurement & Validation Process

Baseline

Establish reference operating data under current fuel and duty conditions.

Define Protocol

Set scope, instrumentation, and pilot criteria aligned to project goals.

Controlled Pilot

Execute monitored operation with documented conditions and traceable data capture.

Transparent Review

Assess findings with stakeholders without overstating conclusions or guarantees.

FAQ

How do you evaluate compatibility with my diesel engine platform?

Compatibility is assessed per engine model, condition, controls architecture, and operational profile.

What does installation planning include before any pilot begins?

Installation planning is defined after technical review of available space, systems integration pathways, and site-specific requirements.

How is safety addressed for hydrogen-assisted operation projects?

Safety engineering is project-specific and subject to formal review, procedures, and applicable regulations before pilot execution.

Will maintenance requirements change after integration?

Maintenance implications are evaluated with operators and service teams during planning and pilot protocol definition.

Can fuel savings or emissions improvements be guaranteed?

Potential outcomes depend on many variables and must be verified through controlled testing; no result is guaranteed in advance.

How are actual results validated and communicated?

Actual results are validated through measured baseline and pilot data with transparent reporting and technical review.

Evaluate Your Diesel Fleet

Start with a technical assessment to review engine platforms, operational profiles, and pilot feasibility.

Evaluate Your Diesel Fleet