Waste heat recovery systems from industrial process

Coping with higher energy costs while implementing decarbonization processes has turned up the heat in the industrial sector. Industries accounts for almost 40% of total global energy use. Due to inefficiencies in their power conversion processes, around 20 to 50% of this energy becomes exhaust heat, which is unexploited and discharged into the atmosphere. This represents a valuable resource that can be channeled into clean waste heat recovery systems (also known as waste heat to power systems).

ORC waste heat recovery power plant cement

HARNESS ALL YOUR UNTAPPED WASTE HEAT POTENTIAL FOR CLEAN POWER GENERATION

Waste Heat Recovery industrial process

Organic Rankine Cycle (ORC) is a technology ideally suited for industrial waste heat to power application. As opposed to waste heat recovery systems based on the traditional steam Rankine cycle, ORC delivers better efficiency for lower and medium-high temperature applications (from 90°C to 400°C), as well as eliminates the requirement for water treatment and makeup.

How can Waste Heat Recovery systems drive the industrial sector?

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Exergy’s use of the innovative and pioneering Radial Outflow Turbine (ROT) in the development of waste heat to power solutions brings the advantages of ORC systems to a higher level, including:

higher ORC efficiency (up to 30%)

optimal match with the heat release curve

better operation at partial loads

energy efficiency industrial

This ensures higher system efficiency and lower specific costs in addition to the following traditional ORC characteristics and advantages:

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ORC waste heat recovery power plant

EXERGY can deliver a product with payback ranging from 3 to 5 years for all energy intensive industries.

EXERGY’s ORC single units offer a power range between 1 MW to 20 MWe.

APPLICATIONS:

CEMENT PLANTS

STEEL MILLS

GLASS FACTORIES

OTHER INDUSTRIAL APPLICATIONS (CHEMICAL, PAPER MILLS, WASTE INCINERATORS…)

Want to know how we can help your business become more efficient and sustainable?

PORTFOLIO

30 MWe

PLANTS

12

AVERAGE PLANT SIZE

2,5 MWe

TOE/Y SAVED

45000

TONNES CO2 EMISSION/Y SAVED

662174

Our Waste Heat Recovery project development support includes:

TECHNICAL AND ECONOMIC ANALYSIS ON THE FEASIBILITY OF AN ORC SYSTEM APPLICATION BASED ON WASTE HEAT SOURCE DATA CHARACTERISTICS

ENGINEERING THE BEST TAILORED ORC CYCLE BASED ON CUSTOMER INPUT DATA

PROJECT MANAGEMENT

ORC EQUIPMENT MANUFACTURING AND ASSEMBLY

DELIVERY AND SUPERVISION DURING CONSTRUCTION

AFTER SALES SERVICE

Upon request, we can provide a turnkey solution for the whole WHR system (Intermediate circuit +ORC module).

Construction geothermal power plant

A waste heat recovery cycle explained

A waste heat recovery system extracts thermal power from the exhaust gas of the industrial plant to feed the ORC module via the intermediate fluid. This fluid, usually oil, pressurized water or steam, transfers heat to the organic fluid in the ORC evaporator, where it vaporizes. The vaporized fluid then passes to the turbine.

 Here, the vapor expands, causing the turbine to spin and creating electricity in the generator. The vaporized organic fluid then continues through the cycle to the condenser where once again it becomes a liquid. It then passes through the pump before beginning the cycle again.

ORC waste heat recovery vs. traditional steam Rankine cycle technology: how to choose?

Regardless of the heat source temperature, ORC is generally the best solution for small power output. The simplicity and compactness of the system, higher efficiency of the turbine, optimal match with the heat release curve and better operation at partial loads ensure higher system efficiency and lower specific cost compared to conventional Rankine cycles.

In certain cases, they become the only practical solution.
Conversely, at considerably high temperatures and large power output, traditional Rankine cycles using steam turbines prove to be the ideal all-around solution: in these conditions, the limited increase in performance for heat sources available over 350-400°C for an ORC implies lower conversion efficiency.

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