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AE200 Frequency Inverter
The A200 series is a high-performance Vector Control general-purpose Inverter, non-inductive vector Inverter. Excellent performance, simple wiring operation, short circuit, phase loss overheat, overload, over voltage, under voltage, communication, motor speed tracking, PID, and motor parameter self-learning function.
EDS800
Water Cooled Spindle
Details
Details
| Model | Input Voltage [V] | Motor(KW) | Output Current (A) | Dimension [mm] | Braking Resistor | SKU | Price [without VAT] |
|---|---|---|---|---|---|---|---|
| AE200-1PH-0075 | 220-240 | 0.75 | 4.5 | 159*105*145 | 200Ω / 80W | 1083001 | 85.00 € |
| AE200-1PH-0150 | 220-240 | 1.50 | 7.0 | 159*105*145 | 100Ω / 250W | 1083002 | 95.00 € |
| AE200-1PH-0220 | 220-240 | 2.20 | 10.0 | 159*105*145 | 75Ω / 250W | 1083003 | 109.00 € |
| AE200-1PH-0300 | 220-240 | 3.00 | 14.0 | 220*116*152 | 40Ω / 400W | 1083004 | 169.00 € |
| AE200-1PH-0400 | 220-240 | 4.00 | 16.0 | 220*116*152 | 40Ω / 400W | 1083005 | 198.00 € |
| 3 Phase Input 380V | |||||||
| AE200-3PH-0075 | 380 | 0.75 | 2.5 / 3.7 | 159*105*145 | 750Ω / 80W | 1083006 | 89.00 € |
| AE200-3PH-0150 | 380 | 1.50 | 3.7 / 5.0 | 159*105*145 | 400Ω / 250W | 1083007 | 105.00 € |
| AE200-3PH-0220 | 380 | 2.20 | 5.0 / 7.0 | 159*105*145 | 250Ω / 250W | 1083008 | 119.00 € |
| AE200-3PH-0300 | 380 | 3.00 | 7.0 | 220*116*152 | 150Ω / 400W | 1083009 | 159.00 € |
| AE200-3PH-0400 | 380 | 4.00 | 9.0 / 13.0 | 220*116*152 | 150Ω / 400W | 1083010 | 199.00 € |
| AE200-3PH-0550 | 380 | 5.50 | 13.0 / 17.0 | 220*116*152 | 100Ω / 500W | 1083011 | 229.00 € |
| AE200-3PH-0750 | 380 | 7.50 | 17.0 / 25.0 | 248*248*190 | 75Ω / 800W | 1083012 | 269.00 € |
| AE200-3PH-1100 | 380 | 11.00 | 25.0 / 32.0 | 248*248*190 | 50Ω / 1000W | 1083013 | 369.00 € |
| Pictures, dimensions,table data and technical drawings of this product are made with reasonable care and liability is excluded for the accuracy and correctness of this data. | |||||||
NOTE: Inverter with Input voltage 220V refers to single-phase 220V input and three-phase 220V output, it need to be connected to three-phase asynchronous motor, three-phase motor needs to be changed to triangle connection. Cannot be used on single-phase capacitive motors!
Triangle and Star Wiring
| Triangle Connection 1 Phase 220V input / 3 Phase 220V output VFD |
Star Connection 3 Phase 380V input / 3 Phase 380V output VFD or net |
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| When using a 3x220V, often made with a VFD Inverter the connection must be made in triangle. | When using 3x380V, direct on from the net, or via a VFD Inverter the connection must be star. |
Specifications
Input and Output
- Input voltage range: 380 / 220V ± 15%
- Input frequency range: 40 ~ 60Hz
- Output voltage range: 0 ~ rated input voltage
- Output frequency range: 0 ~ 600Hz ( 0-2000HZ for V1.15 software version)
Peripheral interface
- Programmable digital input: 4-WAY input(8-Way for the digital port input ofF103 version )
- Programmable analog quantity: FV: 0~10V input, FI: 0〜20mA input.
- Open collector output: 1-WAY output
- Relay output: 1-WAY output
- AO(analog output) FO : 1-WAY output: 0〜10V output
Technical performance
- Control mode:SVC, V/F control
- Over-load ability: 150% of rated current 60s; 180% of rated current 10s
- Starting torque: SVC: 0.5Hz / 150% (SVC)
- Speed-regulating ratio: SVC: 1: 100
- 1HZ~150% torque output to meet your demanding needs!
- The 6th generation of new IGBT architecture
- Automatic voltage adjustment function: automatically keeps the output voltage constant when the input voltage changes
- Simple PLC, multi-speed control function: 16-speed control
Vector control, also called field-oriented control FOC
FOC is used to control AC synchronous and induction motors. It was originally developed for high-performance motor applications that are required to operate smoothly over the full speed range, generate full torque at zero speed, and have high dynamic performance including fast acceleration and deceleration. However, it is becoming increasingly attractive for lower performance applications as well due to FOC's motor size, cost and power consumption reduction superiority. It is expected that with increasing computational power of the microprocessors it will eventually nearly universally displace single-variable scalar volts-per-Hertz (V/f) control.