
( Brand: Applied Motion Products ), ( Manufacturer Part Number: HT23-396-002 ), ( Part Type: Motor )
The Applied Motion HT23-396-002 Hybrid Stepper Motor is a high-performance, compact motor designed for precise motion control applications. This motor features a step angle of 1.8 degrees, which allows for fine-tuned positioning and high-resolution motion control.
The HT23-396-002 is a 5.36V motor, making it an excellent choice for power-efficient applications that require high torque and precision. It has a resistance of 3.8 ohms, which means it can handle a significant amount of current, allowing it to deliver high torque and speed.
The Hybrid Stepper Motor is a combination of a permanent magnet and a moving coil, which provides the benefits of both types of motors. This design allows for high torque at low speed, as well as high speed at low torque, making it a versatile motor for a wide range of applications.
The HT23-396-002 is also known for its reliability and durability. It is built with high-quality materials and has a robust construction, which ensures long-term performance in demanding environments.
In summary, the Applied Motion HT23-396-002 Hybrid Stepper Motor is an ideal choice for applications that require high precision, high torque, and power efficiency. Its 1.8-degree step angle, 5.36V operation, and 3.8-ohm resistance make it a versatile and reliable motor for a variety of motion control applications.
Pros of buying Applied Motion HT23-396-002 Hybrid Stepper Motor:1. High precision: With a 1.8-degree step angle, this motor provides high precision and smooth motion, making it suitable for applications requiring precise positioning.
2. Energy-efficient: The 5.36V power supply voltage makes it energy-efficient, which can help reduce the overall energy consumption of the system.
3. Low resistance: With a resistance of 3.8 ohms, this motor can handle high currents, making it suitable for high-power applications.
4. Compact size: The motor's compact size makes it easy to integrate into various applications, saving space and reducing the overall system weight.
5. Durable: Applied Motion is known for its high-quality products, and this motor is no exception. It is designed to withstand harsh environments and provide long-term reliability.
Cons of buying Applied Motion HT23-396-002 Hybrid Stepper Motor:1. Limited power: With a voltage of only 5.36V, this motor may not be suitable for high-power applications that require a higher voltage.
2. Cost: Compared to other stepper motors in the market, this motor may be more expensive due to its high-quality components and precision manufacturing.
3. Limited availability: Due to its specifications and high-quality, this motor may not be readily available from all distributors, and it may take longer to source.
Conclusion:The Applied Motion HT23-396-002 Hybrid Stepper Motor is a high-quality, precision motor that is suitable for applications requiring high precision and smooth motion. Its energy-efficiency, low resistance, and compact size make it a viable option for various applications. However, its limited power and cost may be a deterrent for some users. If the application requirements align with the motor's specifications and the user is willing to pay the premium for high-quality, this motor is a great choice.
Recommendation:If the application requires precision and smooth motion, the Applied Motion HT23-396-002 Hybrid Stepper Motor is a great choice. However, if the application requires higher power or a lower cost, other stepper motors in the market may be more suitable. It's always a good idea to compare various motor options based on the specific application requirements before making a purchase decision.
Manufacturer:Applied Motion Products. Hybrid Step Motor. P/N: HT23-396-002 B46-04. Shaft Diameter: 1/4.
Model: HT23-396-002 B46-04. Condition: Used. It has scuffs and scratches from normal use. Comes in non-original packaging.
Applied Motion HT23-396-002 Hybrid Stepper Motor 1.8-Degree 5.36V 3.8-Ohms. This item is guaranteed to be as described. Specifications.