Ease of Manufacturing Can Impact Material Selection of Pumps

ITT Goulds PumpDemand for highly engineered materials in process industries follows from the need for reliable equipment and accessories, for optimum service life with seldom-interrupted operations.

Product development today benefits from computer-aided design (CAD), computer-aided engineering (CAE) and product-lifecycle management (PLM) disciplines, allowing a level of automation, analysis and documentation never before possible.

Nevertheless, failure to understand the crucial role of proper metallurgical controls from design through manufacture can lead to increased failure rates and production loss. Material selection and processing are critical — for new product development and for redesign upgrades for service or reliability improvement.

Material selection from numerous options requires careful evaluation of their properties for suitability. Factors such as economy, service compatibility, manufacturability, mechanical properties, corrosion — wear resistance and availability are to be considered prior to specifying the material for a given application. If selection is carried out haphazardly, the best material options may be ignored. Risk can be reduced by adopting a systematic material-selection procedure through verification testing.

In a broad sense, material selection is optimized by communication feedback between the field and manufacturer on performance, considering investment and operations and maintenance costs, to minimize total cost while ensuring acceptable safety and reliability.

Read full article at: Processing Magazine

A selection criterion for pump and valve reliability

ITT’s Goulds Pumps Brand to Equip Stanford University Sustainability Program | ITT Corporation

Three different Goulds Pumps brand models were selected by Stanford as part of a comprehensive district heating plan that will replace a current natural gas-powered cogeneration plant with an electricity-powered heat recovery plant. Studies have shown that the campus can recover up to 70 percent of the heat now discharged from the cooling system to meet at least 80 percent of simultaneous campus heating demands, significantly reducing fossil fuel and water use in the process. Scheduled for completion in 2015, Stanford’s facility will be key to reducing campus carbon emissions by up to 50 percent, lowering its water use by up to 18 percent and saving an estimated $300 million over the next 35 years.

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