Steam System Optimization: A Case Study: Armstrong Service, Inc. USA
Nevena Iordanova, Ven V. Venkatesan, Michael Calogero
Abstract
Nevena Iordanova, Ven V. Venkatesan, Michael Calogero
Abstract
The steam system optimization (generation, distribution, use, and condensate return) offers a large opportunity for action to comply with the new levels of energy efficiency standards. Superior design and improved maintenance practices are the two main sources of savings in steam systems. Increased competition no longer permits an industry to survive with energy waste that could be eliminated. This article highlights the study findings of the steam system in a plant in the food industry. The steam system operates with an annual budget of $1.9 million. Normal steam demand ranges between 80,000 to 85,000 lb/hr. The steam system analysis identified energy savings worth $270,000 per year. The optimization measures were in two categories: •No-cost/low-cost optimizations that can be done through a better maintenance and improved operating condition.•Major improvements that require a significant investment, and include the modification of the process and major equipment.
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The steam system optimization (generation, distribution, use, and condensate return) offers a large opportunity for action to comply with the new levels of energy efficiency standards. Superior design and improved maintenance practices are the two main sources of savings in steam systems. Increased competition no longer permits an industry to survive with energy waste that could be eliminated. This article highlights the study findings of the steam system in a plant in the food industry. The steam system operates with an annual budget of $1.9 million. Normal steam demand ranges between 80,000 to 85,000 lb/hr. The steam system analysis identified energy savings worth $270,000 per year. The optimization measures were in two categories: •No-cost/low-cost optimizations that can be done through a better maintenance and improved operating condition.•Major improvements that require a significant investment, and include the modification of the process and major equipment.
Key concepts: Engineering, Investment (military), Service (business), Steam-electric power station, Competition (biology), Waste management, Process engineering, Operations management