In the global economy, industrial electric motors power a wide range of applications. The International Energy Agency (IEA) estimates that up to 70% of all energy used in industrial settings, 35% of all energy used in the commercial and service sectors, and 45% of all power generated globally come from the automobile industry. Given that motor-related downtime costs thousands of dollars per hour, these statistics demonstrate the critical role that electric motors play in a range of industrial activities. They are primarily responsible for power plant greenhouse gas emissions and environmental harm. They are also largely to blame for the fast-rising demand for power in developing countries.
With typical payback times of under three years, there is a global economic potential to boost industrial motor energy efficiency by 20% to 30%. About 15%, or 4.3 billion tons, of the world’s annual 26 billion tons of carbon dioxide emissions are caused by electric motors. One of the most affordable and risk-free ways to lower the rising energy demand and greenhouse gas emissions is to increase energy efficiency.
For the following reasons, use an effective motor:
Electric motors lose some of the energy they receive through windage and friction losses, as well as losses in the stator, rotor, and magnetic core. The decrease in motor efficiency can be attributed to these losses. Efficiency evaluation and minimal energy performance standards are necessary and relevant when taking into account energy consumption and the industrial usage of electric motors. The accuracy of the motor efficiency and motor loss calculations depends on the test method used. There isn’t a single testing technique that is used in every industry. Although it is a straightforward concept, it might be difficult to measure and confirm the motor’s energy efficiency using the various criteria.
In industrial applications, it is usual to discuss the testing techniques listed below:
A common test method for polyphase motors and generators is IEEE 112-2004. Tests, IEC 60034-2-1, International Electrotechnical Commission, 2014. methods for figuring out the efficiency and losses of electrical gear that spins. The Japanese Electrotechnical Committee developed JEC 37 as a standard for induction devices. ANSI/IEEE 112-2004
This approach consists of 10 energy efficiency test procedures. To use the most crucial:
There are three main categories for the IEC standard test:
The test procedures for the Japanese JEC standard 37 completely neglect the additional load losses. Lower operating expenses for businesses are one of the many significant economic and environmental advantages of improving the energy efficiency of machinery and appliances. All major Indian cities, including Delhi, Mumbai, Chennai, Bangalore, and Hyderabad, may take use of our motor start analysis services.