The industrial challenge
Industrial Decarbonization & Process Engineering
Transforming industrial emissions into value.
We analyze plants, engineer tailored solutions and integrate proprietary technologies for cleaner, more efficient industrial processes.
Process EngineeringIndustrial competence at the core
Potential AnalysisTechnical and economic evaluation
Our TechnologiesCapture, conversion and valorization
IntegrationFrom concept to operational plant
Understanding the plant before selecting the solution.
Emissions, pollutants, waste heat and unused material streams are connected. We assess these relationships before recommending a technology or integration pathway.
Flue GasCarbon Capture and Conversion potential
Process EfficiencyOverall process analysis
EnergyHeat recovery and Pinch Analysis
WasteFeedstock and value creation
Our Approach
From first assessment to industrial integration.
Our clear project pathway links consulting, engineering and proprietary technology.
Analyze
Plant status, process data, emissions, pollutants, waste streams and energy flows.
Evaluate
Technical feasibility, economic potential, environmental impact and technology fit.
Engineer
Process design, simulation, Pinch Analysis and detailed integration concepts.
Integrate
Implementation of the best conventional or proprietary ZCT solution.
Technology Portfolio
Technology pathways organized by their target product.
The structure focuses on what the process delivers: captured CO₂, clean hydrogen, clean methane or recovered industrial heat. Each category connects directly to a preselected assessment pathway.
ZCT Technology pathway
CCC® for low-partial-pressure industrial flue gas.
Capture technologies differ in selectivity, energy demand, scalability and suitability for dilute industrial gas streams.
Selectively permeable materials separate CO₂ from other gas components. Compact and modular, with no chemical additives, but often limited where very high selectivity is required.
CO₂ is chemically absorbed into an aqueous amine solution and released during thermal regeneration. Industrially established, but associated with significant regeneration energy demand.
Pressure Swing Adsorption uses porous solids under pressure and regenerates them by lowering pressure. It is particularly suited to moderate and high CO₂ concentrations.
Temperature Swing Adsorption uses thermal regeneration of solid adsorbents. It can address dilute flue-gas streams but typically involves longer cycles and higher thermal demand.
Solid chemical sorbents bind CO₂ directly from dilute industrial flue gas and can be combined with downstream catalytic conversion. Capture and value creation are treated as one integrated process pathway.
ZCT Technology pathway
Clean hydrogen from electricity, carriers or industrial waste streams.
Hydrogen production pathways differ in feedstock, carbon intensity, integration requirements and transportability.
Water is split into hydrogen and oxygen using a polymer membrane and electricity. The process responds quickly to variable renewable power but currently requires relatively expensive catalyst materials.
Ammonia can function as a hydrogen carrier and later be cracked back into hydrogen and nitrogen. It simplifies transport but adds an additional energy-intensive conversion step.
Steam Methane Reforming is the established large-scale route from natural gas. Without carbon capture it creates significant emissions and is typically classified as grey hydrogen.
Autothermal Reforming combines oxidation and steam reforming with improved heat integration and produces a concentrated CO₂ stream that can simplify downstream capture.
An emerging integrated pathway that uses chemisorption to recover usable carbon and hydrogen-relevant streams from industrial flue gas while simultaneously addressing emissions.
ZCT Technology pathway
Clean methane through biological, catalytic and integrated conversion routes.
Methane pathways combine biological conversion, catalytic synthesis and integrated waste-gas valorization.
Hydrogen and CO₂ react in a catalytic Sabatier process to form synthetic methane and water. The route is compact but depends on a reliable low-carbon hydrogen supply.
Anaerobic fermentation converts organic waste into biogas, which is upgraded to methane. It is mature and suited to biological feedstocks, but requires additional purification.
Reverse Steam Methane Reforming converts hydrogen and CO₂ back into methane and steam using adapted reformer concepts and catalysts.
Reverse Autothermal Reforming applies controlled heat integration to methane synthesis and builds on the thermal-management principles of conventional ATR.
CO₂ is captured directly from dilute industrial flue gas and coupled with hydrogenation to produce methane in an integrated waste-gas-valorization process.
Services
Two complementary service areas.
Conventional process engineering is combined with structured consulting and potential analysis.
Process Engineering
Engineering services for development, optimization and integration of industrial systems.
- Process Engineering
- Basic and Detail Engineering
- Process Simulation
- Pinch Analysis
- Technology Integration Planning
Featured Engineering Application
Industrial Heat Pump COP Optimization
Improve existing industrial heat-pump systems through process optimization, system integration and complete engineering support.
Explore SolutionConsulting & Potential Analysis
Assessment of existing assets, emissions, inefficiencies and technology opportunities.
- Plant and Process Assessment
- Emission and Pollutant Mapping
- Waste-Stream Characterization
- Technical Feasibility Studies
- Economic Potential Evaluation
Engineering Network
Industrial implementation requires engineering depth.
ZCT works with experienced engineering partners for planning, integration and execution in existing industrial environments.
ICB EngineeringEngineering, planning and industrial integration↗
Plant Assessment
Start with the operating reality of your plant.
A short overview is enough to begin. Detailed plant data can follow under the appropriate confidentiality framework.
What is your CO₂ worth?
Savings + revenue—EUR / year
Indicative model calculation. Project-specific values are determined as part of a ZCT potential analysis.
Media & Publications
Technical knowledge and current company activity.
External Publication
Decarbonisation Technology · August 4, 2026
Closed-carbon pathway
Published in Decarbonisation Technology, this article explores how Carbon Capture and Conversion (CCC®) can transform industrial CO₂ emissions into renewable liquid fuels. It outlines the complete pathway from CO₂ capture to synthetic fuel production, highlighting the technical, economic and infrastructure advantages of integrating carbon capture with fuel synthesis as a practical complement to electrification in hard-to-abate transport sectors.
Read article
Company News
Partnership in Research
This collaboration highlights Zero Carbon Technologies' commitment to research-driven innovation. By working closely with academic and industrial partners, we advance practical engineering solutions that accelerate industrial decarbonization and support the development of next-generation Carbon Capture and Conversion (CCC®) technologies.
View on LinkedIn
Digital Refining
Digital Refining
Published in PTQ Q2 2026, this article outlines ZCT Solutions' engineering approach to SMR reactor optimisation, highlighting opportunities to improve efficiency, optimize hydrogen production, and support refinery decarbonization through practical process engineering.
Read article hereContact
Engineering starts with a clear technical conversation.
Contact us regarding plant assessment, process engineering or technology integration.
Emailoffice@zero-carbon.at
LocationVienna, Austria
Project ScopeAssessment · Engineering · Integration