CHP in the Food & Beverage Manufacturing IndustryUSCHPAORNLU.S. DOE
/ / / / / / /
   
Beverages
  Bakeries & Tortillas
  Sugar & Confectioneries
  Seafood Preparation
& Packaging
  Meat
  Dairy
  Grain & Oilseed Milling
  Fruit & Vegetable
Preserving
  Snack Foods
& Peanut Butter
 

Potential

CHP potential in the food & beverage processing industry is significant and growing.
By looking at…
• the industry’s energy needs,
• installed CHP base,
• one analysis by Energy & Environmental Analysis, Inc. showing 276 MWe of potential after running technical and economic screens, and
• industry examples and a database of case studies,
…it is apparent and inevitable that end-users, the CHP industry, and the nation’s environment all stand to gain by an increased utilization of CHP.

Industry’s Energy Needs
• Food processing is one of the largest manufacturing sectors in North America
• Fifth largest industrial user of energy
• Accounts for 13% of all manufacturing output in the U.S.
• According to the National Food Processors Association the food processing industry is valued at $500 billion.
• American food processing accounts for 26% of world output

Installed CHP Base
• Fruits and Vegetables—2767 MW
• Grain and Corn Processing—784 MW
• Sugar, Candy, Gum, Nuts—699 MW
• Seafood, Ice, Prepared Foods—491 MW
• Beverages—340 MW
• Dairy Products—165 MW
• Oils—116 MW
• Meat—51 MW
• Bakery—25 MW


Assessment of Large CHP (2-50MW) Market Opportunity--EEA, ORNL, 2003

Source: EEA and IHS Energy Study shows 276 MW e of Potential

Industry Examples

 

 
 




Magic Valley Foods Potato Processing Plants
South-Central Idaho
• 2 10-MW Solar Turbines supply 24/7 electricity to the Idaho Power grid
• An unfired HRSG recovers thermal energy from turbine exhaust to generate 1310 kPa (190 psig) steam used by potato peelers, washer and dryer equipment



Miller Brewing
Irwindale, CA (a suburb of Los Angeles)
• Uses ammonia as its refrigerant
• Plant uses two Frick screw compressors driven by 3512 turbocharged Caterpillar natural gas engines
• Each engine is equipped with heat exchangers which preheat boiler feed water, which offsets a portion of the boiler gas
• Heat recovery from the engines (34-38% energy recovery rate of fuel input) plays a substantial role in the energy economics of the Miller system; contribution that heat recovery makes to the bottom line in Miller's case is 32% or about $150,000 annually
• To find other relevant industry case studies, searchable by sector, subsector, prime mover, state, etc., see the Distributed Energy Program’s Case Study Database