How to Choose the Right Drive Motor for New Energy Automobiles? Which One is More Efficient and Reliable? Why do some new energy vehicles (NEVs) accelerate quickly and run smoothly, while others struggle with weak power and range anxiety? The answer lies in the type, design, and materials of the drive motor for new energy automobiles.
Have you ever struggled to choose the right stamping method? In producing motor cores, progressive die and compound die stamping each has its advantages. But how do you make the right choice between the two? Many motor designers often find themselves in this dilemma.
There are many types of pumps on the market, such as centrifugal pumps, gear pumps, piston pumps, and more. Each has its own advantages and specific application scenarios. However, without understanding their characteristics, it’s easy to choose the wrong one, which can lead to inefficiency or frequent problems during use.
Many of us have an induction motor in our homes and probably use it daily. But induction motors are not the only motor option out there. There are synchronous motors that can often do a better job at running your equipment. This blog will discuss the differences between induction and synchronous motors, their work, and which motor is right for you.
In motor design and applications, do you often wonder how to choose the most suitable motor for a specific application?DC motors, AC motors, asynchronous motors, synchronous motors, stepper motors, and servo motors—all these types of electric motors have different working principles, structural features, and application scenarios.
Do you know how motor laminations materials affect equipment efficiency and performance? In the manufacturing of motors and transformers, choosing the right motor lamination material is crucial because it directly impacts core loss, power density, and operational stability. So, what are the common types of motor laminations available in the market, and what are their pros and cons?
When you start designing a motor, the stator winding type is an unavoidable topic. For beginners in motor design, seeing various complex winding methods, such as concentrated, distributed, single-layer, double-layer, and flat-wire windings, can be confusing.
Why aren’t axial flux motors taking over the electric vehicle industry yet, despite their clear advantages in power density and efficiency? While these motors are often touted as the future of electric propulsion, several challenges are slowing their widespread adoption in electric vehicles. In this blog, we'll explore why axial flux motors, despite their impressive potential, are not yet commonplace in all EVs.
Have you heard that Mercedes recently acquired YASA? This acquisition not only highlights YASA's leadership in electric drive technology but also showcases the huge potential of axial flux motors in the future of electric vehicles. In this article, we will delve into the design, features, and applications of YASA's axial flux motor, helping you gain a full understanding of this technology.