Yaskawa AC Servo Motor 1.8KW 200V with 17bit Absolute Encoder SGMGV-20A3A21
Yaskawa AC Servo Motor 1.8KW 200V with 17bit Absolute Encoder SGMGV-20A3A21
Product Details:
Place of Origin:
Japan
Brand Name:
YASKAWA
Model Number:
SGMGV-20A3A21
Detail Information
Place of Origin:
Japan
Brand Name:
YASKAWA
Model Number:
SGMGV-20A3A21
Brand:
YASKAWA
Model:
SGMGV-20A3A21
Place Of Origin:
Japan
Power:
1.8KW
Volatage:
200V
Current:
16.7A
Highlight:
High Light
Highlight:
ewing machine servo motor
,
electric servo motor
Trading Information
Minimum Order Quantity:
1
Price:
negotiable
Packaging Details:
New in original box
Delivery Time:
2-3 work days
Payment Terms:
T/T,Western Union
Supply Ability:
1000
Product Description
Yaskawa 1.8KW AC Servo Motor SGMGV-20A3A21
New original Yaskawa industrial servo motor with 1.8KW power rating, designed for precision industrial applications requiring high torque and accurate positioning.
Technical Specifications
Current
16.7A
Voltage
200V
Power
1.8KW
Rated Torque
11.5N-m
Maximum Speed
1500rpm
Encoder
17-bit Absolute Encoder
Load Inertia
0.026 kg·m² × 10⁻⁴
Shaft Type
Straight without Key
Compatible Products
Yaskawa Motors & Drivers: SG- Series
Mitsubishi Motors: HC-, HA- Series
Westinghouse Modules: 1C-, 5X- Series
Emerson: VE-, KJ- Series
Honeywell: TC-, TK- Series
Fanuc Motors: A0- Series
Rosemount Transmitters: 3051- Series
Yokogawa Transmitters: EJA- Series
Contact Information
Contact Person: Anna
Email: wisdomlongkeji@163.com
Phone: +0086-13534205279
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Safety Notice: Before servicing or working near motor-driven equipment, disconnect the power source from the motor and accessories.
Motor Selection Guidelines
Identifying a motor for replacement purposes or specifying a motor for new applications requires the following information:
Nameplate Data
Mechanical Characteristics
Motor Types
Electrical Characteristics and Connections
Technical Performance Characteristics
Stepper motors can exhibit resonance phenomena at certain step rates, characterized by sudden torque loss at specific speeds that may result in missed steps or loss of synchronism. This occurs when the input step pulse rate coincides with the rotor's natural oscillation frequency, typically appearing around 100-200 pps and higher step pulse rates.
Resonance phenomena originate from the motor's fundamental construction and cannot be completely eliminated. The effect varies with load conditions but can be mitigated by operating the motor in half-step or microstepping modes.
When a step pulse is applied, the rotor responds according to defined performance curves. Step time (t) represents the duration for the motor shaft to rotate one step angle after pulse application, heavily dependent on torque-to-inertia ratios and driver type. Since torque varies with displacement, acceleration follows accordingly, potentially causing overshoot and ringing during large step increments. Settling time (T) denotes the period required for these oscillations to cease.
Microstepping techniques effectively reduce or eliminate this behavior, providing smoother motion control ideal for applications requiring precise positioning such as camera pan/tilt mechanisms or sensor positioning systems. Implementation involves scaling potentiometer input values (0-1023 range) to corresponding angular positions (0-180 degrees) for precise servo control.