Distributed Ceramics Energy Project
A Case Study in Industrial CCHP Efficiency

Parallel EGT20 Turbine Integration with High-Grade Thermal Cascading High-temperature exhaust gas are redirected to 500°C -650°C for drying tower for on-site utilization.

Sichuan Lihong Ceramics Co.

A Case Study in Industrial CCHP Efficiency

Deployment: June 2023

Implementation for Sichuan Lihong Ceramics Co., Ltd . located in Neijiang City, Sichuan Provinceid

Distributed Energy Mandate

An on-site solution designed to simuitaneously satisty plant electricity needs and industrial drying heat demands

Environmental Mandate Pressure

Facility classified as high-energy /high-emission, facing strict mandates to transition from coal-fired to gas-fired hot air furnaces.

Economic Viability Crisis

Soaring production costs for ceramic powder required a drastic reduction in raw-material energy expenditures

Fuel-Flexible Turbine Replacement

Traditional gas-fired furnaces were replaced with highly efficient, fuel-flexible gas turbine units

Direct Heat Integration

High-temperature exhaust gas is directed into spray drying towers for slurry dehydration, achieving a perfect heat-to-electricity match.

Power Assets

Two ENN EGT20 gas turbines delivering a combined high-reliability electrical capacity

Thermal Assets

Direct-fine ducting and supplementary afterburning temperature control equipment for Model 12000 spray drying towers

9,000
tons CO2

Annual Reduction

3,000
ton

Annual Coal Saved

> 85%
System Efficiency

Annual Electricity Savings

20% Reduction Cost

Ceremic Powder Production Cost

Financial Savings

Realized a >20% reduction in powder manufacturing costs and a substantial drop in overall energy procurement bills

Regulatory Compliance

Achieved complete compilance with local emissions targets, reducing pollutants by over 50% compared to standard drying tower benchmarks

PUE Minimization / Modular Scalability

High-grade 500°C-650°C turbine exhaust can drive lithium-bromide absorption chillers to satisfy 100% of data center cooling needs

Parallel gas turbine arrays supply uniriterrupted baseload power while seamlessly handling heavy GPU computing load spikes

ENN's thermal integration dominance, proving that capturing high-grade waste heat is the key to minimizing data center PUE and maximizing available compute power