30kvar Rack Mount Svg Static Var Generator Automatic Reactive Power Compensation

SVG Operating Principle

SVG checks the load current through the external CT and performs computing through the external DSP to analyze the reactive content of the load current. After that, it controls the PWM signal generator based on the settings to send control signals to the internal IGBT. In this way, it generates reactive compensation current to implement dynamic reactive power compensation. 

Features
 
1.Wide compensation range, (+1) ~ (-1)
 
 
 2.Fast response speed, full compensation response speed ≤10ms
 
 
 3.Low-order harmonic compensation capability, can perform 3-13th harmonic compensation
 
 4.Three-phase unbalance compensation capability, which can adjust the three-phase imbalance of the system
 
 
 5.Flexible configuration, according to the actual power quality status of the system, set governance priorities to        maximize module utilization
 
 
 6.Connected to the system in parallel, with 16 kinds of protection functions at the same time, comprehensive protection of equipment security and system security
 
 7.Flexible expansion, combined with common reactive compensation capacitor cabinet for hybrid compensation


CoEpower Series SVG Static Var Generator

Easy to Use Graphical User Interface
The CoEpower series integrates a HMI including a graphical user interface.It offers direct control,
Configuration, monitoring and data analysis of the SVG without the need of a PC.Communication
Options, detailed alarm events and fault reporting with real time stamp are also included.

Backlit Display
Incorporating a high level of readability and ease of menu navigation, the backlit LCD display offers:„
Access and configuration of operating parameters
„ Measurement data in numerical, graphical and spectrum formats
„ Operation status inclusive of detailed alarms and fault messages
„ Password protected for critical settings

Alarms and Fault Reporting
Detailed alarms and fault messages with real time stamping are provided for quick troubleshooting.
Modes of protection include:
„ Over-temperature
„ Inverter bridge in event of abnormal operations
„ Over and under voltage
„ Malfunction of ventilation fan
„ Communication faults

Ease of Installation & Commissioning
„ Designed to be a 'Plug & Play' experience for the user
„ Installation & Commissioning process is the industry benchmark for simplicity and ease of use.
„ Provide comprehensive customer support from our Power Quality Consultants
Available in Various Configurations
„ 3-Wire and 4-Wire versions available
„ Available from 320V to 480V
„ Available in IP20 or customize to suit a wide variety of industry applications
1 Year Warranty (conditions apply)

Protection Features
„ Internal short circuit protection
„ Temperature monitoring
„ Over-voltage protection
„ Under-voltage protection
„ Abnormal frequency protection
„ Output overload protection
„ CT installation detection
„ Inverter bridge abnormal operation protection
„ Inverter over-current protection
„ Over compensation capacity
„ Component capacity redundancy
„ Fan fault protection
„ Fuse protection
„ Busbar over-voltage protection

Common Applications for SVG Static Var Generator
„ Data Centres
„ Water recycling
„ Mechanical Services
„ Hospitals
„ Electrical Vehicles
„ Multi-media
„ Water reticulation
„ Gas & Oil
„ HVAC
„ Building
„ Water treatment
„ Manufacturing
„ Broadcasting
„ Chemical
„ Rail network
Selection guidelines
„ Suitable for 4-Wire systems
„ For 4-Wire configuration, 3 CT's are required (at L1, L2 & L3)
„ LED versions are used in stand alone cabinets that have a touch
Screen on the front door
„ LCD versions are used where there is no touch screen required
(eg.When 2-4 units are connected in parallel with each other)
 
SVG checks the load current through the external CT and performs computing through the external DSP to analyze the reactive content of the load current. After that, it controls the PWM signal generator based on the settings to send control signals to the internal IGBT. In this way, it generates reactive compensation current to implement dynamic reactive power compensation.