Costs and Benefits of Rewinding an Electric Motor: Essentials in 256 Words

An electric motor’s lifespan may require rewinding as an alternative to replacement in certain situations. Rewinding, the process of removing and replacing the existing windings with new ones, offers various advantages over purchasing a new motor. However, the cost and feasibility of this process depend on specific factors.

Rewinding costs range from €200 for small motors to €1,500 or more for larger, more complex ones (Electric Motor Repair Specialist). The price difference lies in labor intensity, time required, and the necessity for specialized equipment. For instance, large industrial motors may take up to two weeks to rewind due to their complexity.

Rewinding extends motor life by repairing damaged windings and addressing potential issues such as electrical faults (Electrical Engineer). It also reduces downtime and labor costs associated with motor replacement, allowing operations to continue without interruption. Moreover, it is a more environmentally friendly option than buying a new motor since it avoids the production of additional waste from manufacturing.


German factories have reported significant savings by repairing motors instead of replacing them. For instance, one factory saved €6,000 in their first year through rewinding (Electrical Engineer). However, not all motors can be rewound, and time frames vary based on motor size and complexity.

Before deciding whether to rewind or replace an electric motor, it’s essential to assess its condition carefully. Motors with significant structural damage may not be suitable for rewinding. Consulting a motor repair expert is recommended to determine the best course of action. For smaller motors in good condition, rewinding can offer considerable cost savings and environmental benefits.

In conclusion, understanding the costs and benefits of electric motor rewinding helps make informed decisions on when and how to proceed. Factors such as motor size, complexity, location, and condition determine whether this process is a viable option for extending motor life and reducing downtime while being cost-effective and environmentally friendly.