FROM WASTE HEAT
TO LOWER-COST POWER.
FROM POWER TO GREEN HYDROGEN.

Phoenix develops the IP and system architecture that turns existing industrial waste heat into economic value.

THE ECONOMICS OF GREEN HYDROGEN

1

GREEN HYDROGEN FOR HARD-TO-ABATE INDUSTRIES

A low-carbon fuel and feedstock for industrial decorbanization.

Steel

Chemicals

Cement

Refining

2

HYDROGEN IS PRODUCED THROUGH ELECTROLYSIS

Electricity is used to split water (H2O) into hydrogen (H2) and oxygen (O2).
3

ELECTRICITY COST IS THE KEY CHALLENGE

High electricity cost limit green hydrogen’s competitiveness against fossil-based alternatives.

3

THE OPPORTINITY: AFFORDABLE CLEAN ELECTRICITY

Access to lower-cost, low-carbon electricity coluld improve green hydrogen’s commercial competitiveness.

LOWER-COST CLEAN ELECTRICITY IS KEY TO COMPETITIVE GREEN HYDROGEN.

SYSTEM ARCHITECTURE THAT TURNS WATE HEAT INTO SALEABLE PRODUCTS

PHOENIX DELIVERS SITE-SPECIFIC, LICENSABLE SYSTEM ARCHITECTURE

Site assessment

Heat availability & site conditions

System design

TEG integration, power management, electrolysis integration

Sizing

Modular configuration based on site needs

Control Logic

Optimal operation and grid integration

Acceptance criteria

Performance, efficiency and safety validation

WHY TEG? THE INDUSTRIAL ADVANTAGE

*Indicative model assumption actual cost, operating hours and recoverable heat depend on site conditions.

FROM WASTE HEAT TO INDUSTRIAL VALUE: A CEMENT PLANT CASE

An illustrative case where waste heat from a single kiln and stack line is converted into electricity using TEGs. The recovered electricity can either be used directly on site or converted into higher-value products trough green hydrogen.

H2 ammonia and methanol capacities represent alternative utilization scenarios and are not cumulative.

INDUSTRIAL TEG: PROVEN APPLICATIONS & EMERGING OPPORTUNITIES

Field applications in steel and cement demonstrate TEG-Based electricity generation from industrial waste heat, while engineering studies explore larger-scale applications and hydrogen integration.

01 - JFE STEEL • JAPAN

≈9,1 kW

STEEL • FIELD DEPLOYMENT

TEG electricity generation from continuous casting waste heat, connected to the plant grid.

02 - HOLCIM / AMRIZE • USA

≈7,7 kW net

CEMENT • INDEPENDENTLY WALIDATED FIELD PILOT

Independently validated TEG power generation from cement-process waste heat.

03 - CEMENT KILN STUDY

115,19 kW

CEMENT • REAL PLANT DATA + MODEL

TEG power generation modelled using operating cement plant data.

04 - TEG + PEM STUDY

295,8 kW → 19,43 kg H2

CEMENT · INTEGRATED SYSTEM MODEL

Modelled integration of waste-heat electricity recovery with PEM hydrogen production.

PHOENIX'S PRODUCT: SITE-SPECIFIC ENERGY RECOVERY ARCHITECTURE

Phoenix designs the system from on-site waste heat potential through to the final energy use, bringing together the required technologies and specialist capabilities through its partner network.

1. ANALYZE

Assess waste heat potential and energy demond.

2. ARCHITECT

Design the site-specific energy recovery architecture.

3. LICENSE

License the architecture, know-how and relevant IP rights.

  • Phoenix is not an equipment manucaturer or EPC contractor.

PHOENIX'S SYSTEM ARCHITECTURE IS BACKED BY IP

Our patent and utility model portfolio address key layers of Phoenix’s system architecture, from waste heat recovery and power aggregation to hydrogen integration.

WASTE HEAT → ELECTRICITY

HEAT RECOVERY ARCHITECTURE

TEG-Based recovery of electricity from industrial waste heat.

TR 2024/005002

ELECTRICITY → HYDROGEN

H2 INTEGRATİON ARCHİTECTURE

Integration of recovered electricity with electrolysis systems.

TR 2025/015708

AT FACTORY SCALE

MULTI-POINT ENERGY RECOVERY

Aggregation of recovered power from multiple industrial heat sources.

TR 2026/007911

IP IS NOT THE ENTIRE VALUE PROPOSITION. IT IS THE PROTECTION LAYER.

Phoenix combines site-specific system architecture, implementation know-how, strategic partnerships and access to relevant IP.

FROM SYSTEM DEVELOPMENT TO INDEPENDENT VALIDATION