
The X-150 is not just a product — it is a living, heavily instrumented research platform with 3,000+ hours of empirical data. We invite visionary academic partners to push the boundaries of thermochemical science alongside us.
Four breakthrough capabilities that open entirely new frontiers for academic investigation.
Our active mechanical poker system and water-cooled finger grate inside the reactor core (operating above 1,300°C oxidation zone) enables stable gasification of highly problematic feedstocks containing up to 35% ash content.
Unparalleled testbed for studying thermodynamic behavior and phase transitions of complex ash (agricultural straw, digestate pellets, MSW) under extreme process states.
Our CATATOR reformer employs a multi-layer structured metallic mesh loaded with a Ni-Ca/γ-Al₂O₃ catalyst. Operating at 850°C, it achieves a proven 99.98% tar conversion efficiency while tolerating up to 20 ppm H₂S.
Real-world testing environment for Langmuir-Hinshelwood kinetics, catalyst deactivation mechanisms (sintering, coking, sulfur poisoning), and advanced materials science.
We utilize neural network algorithms and COMSOL Multiphysics (k-ε turbulence, Maxwell-Stefan diffusion) to model conversion efficiency dynamically, achieving up to 50% better prediction accuracy than traditional stoichiometry.
Rich environment for applied mathematics and CS departments to develop digital twins, predictive maintenance algorithms, and autonomous ML control logic.
Our biochar exhibits a BET surface area of 170.08 m²/g with 53.25% microporous structure. High carbon content (67.6%), potassium (15.8%), and calcium (3.4%) confirmed by EDX analysis.
Ideal candidate for CCS, methane adsorption, industrial filtration, and agricultural soil amendment research. Hydrophilic nature enables nutrient retention studies.
Based on our extensive COMETHA Phase 2 trials, we have identified the most impactful areas where academic partnership will accelerate the clean energy transition.
CCS, gas filtration, crop yield optimization, and lightweight construction additives based on the stable 170 m²/g surface area.
Elemental transformations (C/H/N/S/Cl) and mineralogical phase changes of high-silica and high-alkali feedstocks.
Validating novel, lower-cost, or higher-resilience catalyst formulations under empirical, industrial-scale conditions.
Optimizing Water-Gas Shift and Methanation thermodynamics to maximize net Carbon Conversion Efficiency (currently 78–81%).
Leveraging the system's high-purity CO₂ streams for chemical synthesis or long-term sequestration.
The X-150 platform was developed in deep collaboration with Hochschule Zittau/Görlitz (HSZG) and Fraunhofer IKTS, bridging the gap between theoretical laboratory work and a fully functional 150 kg/h industrial prototype.
3,000+ hours of test run data, P&ID structures, mass/energy Sankey balances — all available for collaborative research.
Opportunities for joint EU Horizon, national, and regional grant applications, subsidized research projects, and PhD/post-doc fieldwork.
A fully operational, heavily instrumented industrial prototype for validating theoretical models under real-world conditions.
Direct connections to Fraunhofer IKTS, TU Zittau/Görlitz, University of York, DLR, and UTP — a proven consortium framework.
We have already established deep collaborative relationships with leading European research institutions. Join a proven consortium.
SOFC & Ceramics Research
Process Engineering & Thermodynamics
Environmental Science & CCU
Aerospace & Energy Systems
Technology & Process Validation
Audit & Compliance Framework
Our COMETHA Phase 2 trials in Paris validated the X-150 with 2,500+ operating hours across multiple waste feedstocks, producing the most comprehensive thermochemical gasification dataset in Europe.