CO2 saving processes
Waste Heat Recovery Unit
Systems tailored to harvest most of the waste heat out of industrial processes and transform them into electricity. A smaller carbon footprint, waste energy reuse, cost optimization and higher overall efficiency are only some of its advantages.
How does a GEA Waste Heat Recovery Unit work?
The WHRU operates -often in conjunction with the Organic Ranking Cycle (ORC) due to the temperature ranges involved- transferring heat from flue gas to another medium through a heat exchanger, which can then be utilized locally or transported across the production site for various applications such as waste gas treatment, district heating or power generation.
GEA delivers customized heat exchanger designed for each specific application, adjusting to factors like gas flow velocity, pipe dimensions and flue gas composition. This tailored approach, backed by GEA's extensive industrial experience across diverse sectors, ensures optimal performance and efficiency for each unique WHRU installation.
Benefits of a Waste Heat Recovery Unit
- Optimized design.
- Self-cleaning operation for enhanced plant availability and efficiency.
- Continuous Online Cleaning System for managing high dust contents exceeding 10g/m³ std. as well as dry, sticky and/or abrasive dust.
- Operational cost reduction of up to 25%.
- Flexibility in Heat Transfer Media.
- Both for thermal oils and pressurized water systems.
WHRU in the Cement Industry
Process for WHRU in the Cement Industry
GEA has been supplying heat recovery systems for the cement industry for more than a decade.
Both on the raw gas side upstream of an emission control system as well as downstream of an emission control system: GEA offers tried and tested waste heat recovery system that do not impact your production process while recovering a large amount of waste heat. On the raw gas side with sticky dust an online cleaning system is applied to keep heat transfer at an optimum over years. With this, GEA supplied WHRUs up to 6.1 MW thermal power, converting it to 1 MW of electrical energy via the ORC process and/or powering your SCR as well.
Currently applied to the glass industry for power generation via an ORC or for heating purposes, the system is ready to utilize waste heat for a CEBO® Carbon Capturing unit instead.
WHRU in the Glass Industry
Process for WHRU in the Glass Industry
Thanks to GEA's expertise in emission control, the deposition of flue gas components on the heat exchanger surface is prevented to achieve very good heat transfer performance with minimum maintenance costs.
By additionally recovering heat from the clinker cooler side, either to operate a tail-end SCR unit or in combination with heat recovered from the kiln flue gas to supply the ORC process, thermal losses are reduced to an economical minimum. While GEA’s WHRUs already pays for itself by direct heating or electrical power generation now, it enables you to capture carbon dioxide emissions in the future by powering our CEBO® Carbon Capturing unit, complying with upcoming environmental regulations.
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Around the world in seven questions: New foods we’ll love
Last year was not a year of hyped-up headlines for alternative proteins. Perhaps that is precisely why it was an important year for food biotech, the biotechnology behind everyday foods and ingredients. While the sector worked through a difficult funding environment, approvals were still granted, pilot lines set up and new platforms tested in the background. In short: headlines are turning into infrastructure. Frederieke Reiners heads GEA’s New Food business. She and her team work at the intersection of biotechnology and industrial food production. In this interview, she takes us on a world tour of food biotech in seven questions.
