Brushless Direct Current(BLDC) Motor

Brushless Direct Current(BLDC) Motor Specification

Usage & Applications
Industrial

Size
Standard

Material
Cast Iron

Voltage
220 Volt (v)

Warranty
1 Year

Protection Class
IP55

Control Mode
Sensor/Sensorless

Applications
Robotics, Automation, CNC Machinery, HVAC, Electric Vehicles

Motor Design
Three Phase BLDC

Mounting Type
Flange/Foot

Cooling Type
Air Cooled

Enclosure Type
TEFC (Totally Enclosed Fan Cooled)

Phase
Single/Three Phase

Operating Temperature Range
-20°C to +50°C

Insulation Class
F

Rated Speed
3000 RPM

Efficiency
80-95%

Brushless Direct Current(BLDC) Motor Trade Information

Minimum Order Quantity
10 Pieces

Supply Ability
10 Pieces Per Week

Delivery Time
7 Days

Main Domestic Market
All India

About Brushless Direct Current(BLDC) Motor

BRUSHLESS DIRECT CURRENT (BLDC) MOTOR - High-efficiency, compact electric motor for fuel pumps and other applications - Reliable, maintenance-free operation with advanced technology - Features: - High torque and speed control - Low power consumption and heat generation - Long lifespan, no maintenance required - Suitable for fuel pumps, DEF pumps, and other industrial applications - Ideal for demanding environments and heavy-duty use Efficient, reliable, and compact BLDC motor for fueling and industrial applications!

Designed for Versatility and Performance

With its three-phase configuration and BLDC technology, this motor is tailored for a wide range of industrial applications. Its durable cast iron construction and TEFC enclosure (Totally Enclosed Fan Cooled) provide excellent protection and longevity, even in challenging operating conditions.

High Efficiency and Reliable Operation

Operating within an impressive efficiency range of 8095%, this BLDC motor ensures energy savings and consistent output. Its insulation class F allows higher temperature tolerance, while air cooling guarantees steady performance for robotics, CNC machinery, and more.

Flexible Installation & Broad Usage

Flange and foot mounting options make integration simple in various equipment setups. The motors wide voltage compatibility (220V), along with support for both single and three-phase operations, means it fits diverse automation, HVAC, and electric mobility requirements.

FAQs of Brushless Direct Current(BLDC) Motor:

Q: How do I select between sensor and sensorless control modes for this BLDC motor?

A: Sensor mode is recommended for applications requiring precise speed and position control, such as robotics and CNC machinery. Sensorless mode is ideal for cost-sensitive or maintenance-restricted environments, like HVAC and some electric vehicles, where slightly less precise but robust control is sufficient.

Q: What are the main benefits of using a TEFC (Totally Enclosed Fan Cooled) enclosure with this motor?

A: The TEFC enclosure protects the motor from dust, moisture, and contaminants, ensuring consistent cooling with an integral fan. This extends the motors lifespan and maintains high performance in challenging industrial environments.

Q: When should the IP55 protection class be considered essential for installation?

A: IP55 protection is crucial in environments where exposure to dust and low-pressure jets of water may occur. It ensures the motor operates reliably in locations such as manufacturing facilities or areas with frequent cleaning routines.

Q: Where are typical applications for this 3000 RPM three-phase BLDC motor?

A: This motor is suited for integration in robotics, automation lines, CNC machinery, HVAC systems, and electric vehicles, serving both industrial facilities and specialized manufacturing setups across India.

Q: What is the process for mounting this motor in my equipment?

A: The motor offers flange or foot mounting options. Securely attach the relevant mount to your equipments frame using the supplied hardware, ensure proper alignment, and follow the wiring guide for single or three-phase connection as per your application needs.

Q: How does the high efficiency (8095%) of this motor translate to operational benefits?

A: Higher efficiency results in reduced energy consumption, lower operational costs, and minimal heat generation. This leads to longer service life and decreased downtime, making it a cost-effective choice for continuous industrial operations.