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INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control

INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control

Brand Name: INOMAX
Model Number: MAX500
MOQ: 1
Price: $99
Detail Information
Place of Origin:
Guangdong, China
Certification:
CE
Type:
AC DRIVE
Control Mode:
TENSION
Rated Power:
1.5KW
Nominal Voltage:
380V-480V
Power Phase:
3
Power Range:
0.75KW -630KW
Motor Type:
Three Phase AC Induction
Insulation Voltage:
800V/1600V
Switching Interval:
10 - 30 Microseconds
Flux Control:
Hysteresis Control
Torque Control:
Direct Torque Control
Current Measurement:
High Quality, No Noise
Stator Voltage:
Estimated From DC Circuit
Speed Sensitivity:
Low Speed Sensitive
Voltage Class:
200V/400V
Highlight:

INOMAX MAX500 VFD drive 1.5KW

,

3-phase VFD drive 380V-480V

,

VFD drive with tension control

Product Description
INOMAX MAX500 VFD AC DRIVE 0.75KW -630KW 380V-480V Inverter for General Purposes
Product Specifications
Attribute Value
Type AC DRIVE
Control Mode TENSION
Rated Power 1.5KW
Nominal Voltage 380V-480V
Power Phase Number 3
Customized Yes
Warranty 18 MONTHS
Product Overview
INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 0 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 1 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 2
Technical Specifications
INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 3 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 4 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 5 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 6 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 7 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 8
Application Areas
INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 9 INOMAX MAX500 VFD AC Drive 1.5KW 380V-480V 3-Phase Tension Control 10
Frequently Asked Questions
What is direct torque control?
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What is the benefit of direct torque control?
  • Torque and flux can be changed very fast by changing the references
  • High efficiency & low losses - switching losses are minimized because the transistors are switched only when needed
  • The step response has no overshoot
  • No dynamic coordinate transforms are needed, all calculations are done in stationary coordinate system
  • No separate modulator is needed, the hysteresis control defines the switch control signals directly
  • There are no PI current controllers, thus no tuning of the control is required
  • The switching frequency of the transistors is not constant but can be controlled via tolerance bands
  • Due to the hysteresis control the switching process is random by nature, resulting in low audible noise
  • The intermediate DC circuit's voltage variation is automatically accounted for in the algorithm
  • Synchronization to rotating machine is straightforward due to the fast control
What Type Of Motor Is Compatible With Inverters?
Inverter motor type must be a three phase AC induction motor. Preferably, you should use an inverter-grade motor that has 800V insulation for 200V class inverters, or 1600V insulation for 400V class inverters. For motor size, in practice it is much better to find the right size motor for your application; then look for an inverter to match the motor.
What Are Some Of The Common Reasons Why Motors Fail?
The EPRI Power Industry Study by General Electric in 1985 offered the following causes based on 6,000 utility motor failures: 41% were bearing related, 37% were stator related, 10% were rotor related and 12% were other causes.
How do you select a VFD?
The EPRI Power Industry Study by General Electric in 1985 offered the following causes based on 6,000 utility motor failures: 41% were bearing related, 37% were stator related, 10% were rotor related and 12% were other causes.