E31NCLT-LNN-N8-00
Wake Industrial LLC is not an authorized distributor of this product.
No Tariffs On US Orders- Straightforward Pricing: No Rush Fees, No Credit Card Fees
-
In-Stock, Ships 1-2 Days
The E31NCLT-LNN-N8-00 is a Nema 34 stepper motor with a 3-stack low inductance design. Manufactured by Kollmorgen, it is part of the E Hybrid Stepper Motors series and operates at a rated voltage of 425 VDC. Its winding configuration features 8 configurable leads and it supports a rated current of 2.7 A DC.
To contact sales for pricing and lead time:
Payment Methods
Shipping Methods
Our Credentials
Product Description:
Kollmorgen is a well-known company that makes high-performance motion control systems. With a background of making new products Kollmorgen provides accuracy and dependability in many fields. Their E Hybrid Stepper Motors like the E31NCLT-LNN-N8-00 Stepper Motor work very well in tough situations where precise and dependable motion control is needed.
With a rated voltage of 4.25 VDC and a rated current of 2.7 A DC this stepper motor delivers power efficiently for a wide range of motion control tasks. The E31NCLT-LNN-N8-00 stepper motor has a 3-stack low inductance design that helps keep energy waste to a minimum and boosts torque production. The NEMA 34 frame size of the E31NCLT-LNN-N8-00 motor makes it a 1.8° stepper motor. This stepper motor has 8 lines that can be set up in either series or parallel. This motor has Class A insulation which ensures its long-lasting and reliable performance under normal circumstances. This motor is designed to operate in areas where the temperature is up to 40°C. This means it can be used in industry and commercial settings with normal temperature ranges. The motor's bipolar design makes sure that it can be precisely placed and stays stable while it's running. This is important for industries that need to control motion precisely, like robots, automated machinery, and others. The motor housing is protected under IP65 protection category.
Because of its low inductance and flexible winding, the E31NCLT-LNN-N8-00 stepper motor may be configured to meet a variety of requirements. It has great torque, accuracy, and dependability. Kollmorgen's expertise makes the E31NCLT-LNN-N8-00 stepper motor a durable, high-performance option for customers that need motion control systems that meet demanding standards. It was designed to handle the difficulties of today's industrial settings making it more useful and dependable.
Frequently Asked Questions about E31NCLT-LNN-N8-00:
Q: What is the benefit of the 3-stack low inductance design in the E31NCLT-LNN-N8-00 Stepper Motor?
A: The 3-stack low inductance design of the E31NCLT-LNN-N8-00 reduces energy loss, resulting in improved torque generation and better overall efficiency. This design is particularly effective for reducing heat generation in high-performance applications.
Q: How does the 8-lead configuration in the E31NCLT-LNN-N8-00 motor improve system flexibility?
A: The 8-lead configuration in the E31NCLT-LNN-N8-00 allows users to configure the motor in either series or parallel mode, offering flexibility for different control requirements. This makes it adaptable for various applications and performance needs.
Q: How does the bipolar configuration in the E31NCLT-LNN-N8-00 motor improve precision?
A: The bipolar configuration of the E31NCLT-LNN-N8-00 ensures precise control over step movements, enhancing positioning accuracy. It allows the motor to achieve higher torque at lower speeds, which is vital for exact motion control.
Q: How does the NEMA 34 frame size affect the performance of the E31NCLT-LNN-N8-00 Stepper Motor?
A: The NEMA 34 frame size in the E31NCLT-LNN-N8-00 provides a higher torque output and mechanical strength, making it ideal for heavy-duty applications. This frame size supports robust performance in high-torque environments.
Q: Why is Class A insulation used in the E31NCLT-LNN-N8-00 Stepper Motor?
A: Class A insulation ensures the motor can withstand temperatures up to 105°C, providing reliable performance and durability under continuous use. This is critical for long-term stability in demanding motion control applications
