Rising fuel and electric costs, along with global warming concerns have changed the way industrial facilities view energy consumption. Process equipment and air pollution control systems that were installed several years ago may not reflect the energy conscious designs available today, analyzing these systems to determine energy reduction opportunities can be a very valuable practice. Recovering waste heat is one of the easiest and most utilized means of reducing energy demands at industrial facilities.
Dürr MEGTEC’s industry-leading experience in air handling, drying, heating, cooling, process and combustion control can help improve the operating efficiency of your facility and maximize the performance of your equipment. By analyzing current process energy usage, we can offer solutions to reduce your energy consumption.
Thermal Energy’s GEM steam traps and FLU-ACE heat recovery technologies have wide applications in the food and beverage industry. From breweries and bottling operations, to food processing, packaging, and other food and beverage operations, we can help you reduce your energy costs while lowering your greenhouse gas emissions.
We help hospitals save money by reducing their fuel bills while also lowering their greenhouse gas emissions. Our proven solutions can increase the efficiency of your heating and steam system to as much as 95% with typical project paybacks (for our combined technologies) within three to five years.
The range of supply of biogas to electricity solutions is from 10 kW to 1 MW. All the components of the solution are provided with matching capacities.
It comprises the biogas digester system of the desired capacity, gas storage, biogas cleaning system to get rid of H2S from the gas, and the biogas genset. In the digester system, one may have a pre-digester or a feed mixing chamber or both. On the post-digester side, liquid from the slurry is separated and is recycled for feed preparation. It reduces the overall...
While mechanical pulp has many benefits (yield and optical qualities being at the top), as energy costs rise, the competitiveness of mechanical fibers declines. You can benefit from new ANDRITZ PULP & PAPER technologies that produce mechanical pulp of high quality at significant reductions in energy consumption.
Turboden ORC can produce electricity by recovering heat from industrial processes, reciprocating engines and gas turbines. The power of Turboden units generally ranges between 200 kW and 15 MW electric.
Any company that has a need for both heat and power is an ideal fit for the Borealis wood power system, especially if located in a rural setting where energy costs are high. The application requirement must be for the full 45 kWh of power for immediate use. If power requirement is not that high, then this energy can be sold to the regional power grid often at preferred rates. Options for off-grid solutions are being reviewed.
Reduction of perating costs: The increased energy costs over the last years have made investments towards heat recovery solutions not only cost effective but profitable. With the support and input of our employees and our technical know how, are improvements and solutions concerning heat recovery become feasible.
Thermal Energy International has helped several well-known pharmaceutical companies in North America and Europe reduce their energy costs and carbon dioxide emissions. Our FLU-ACE heat recovery system recycles the heat normally lost through the boiler flue gas exhaust – reducing energy consumption on most boilers by 10% to 20%.
Whether providing high-efficiency, low emissions auxiliary boilers to coal or otherwise fired power plants across the United States, or heat recovery steam generators to natural gas fired turbine plants you will find Superior Boilers serving the needs of power generation customers for years to come.
Processes that create a synthetic gas (syn gas) in a gasification process for waste reduction, electricity generation, or steam production (CHP – combined heat and power processes) – commonly benefit from custom heat recovery systems.