what is the advantage of paralleling MOSFETs over single MOSFET dissipating same power as in the total parallel combination?

 Paralleling MOSFETs in power electronics has several advantages over using a single MOSFET dissipating the same power as in the total parallel combination.

Reduced conduction losses: By paralleling MOSFETs, the effective on-state resistance (Rds(on)) of the parallel combination decreases, resulting in reduced conduction losses. This allows the MOSFETs to handle higher current levels without overheating.

Improved thermal performance: With multiple MOSFETs in parallel, the heat generated during operation is distributed across the MOSFETs, which reduces the temperature rise of each MOSFET. This can improve the reliability and lifespan of the MOSFETs.

Increased system efficiency: By reducing conduction losses and improving thermal performance, paralleling MOSFETs can increase the overall efficiency of the power electronics system.

Improved current sharing: MOSFETs in parallel tend to share the current more evenly compared to a single MOSFET, which reduces the risk of thermal runaway due to current hogging.

Improved fault tolerance: In case of a fault in one of the MOSFETs, the remaining MOSFETs can still share the load, providing some level of redundancy and improved fault tolerance.

Easier thermal management: By using multiple MOSFETs, it becomes easier to design and implement a thermal management system that efficiently dissipates the heat generated during operation.

Overall, paralleling MOSFETs can provide several benefits over using a single MOSFET for high-power applications, including improved efficiency, thermal performance, and reliability.