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30 Years of Power Quality Engineering Excellence

Industrial Power Quality Products & Equipment Catalog

Engineered by Shanghai iKonMac Technology Co., Ltd., our hardware portfolio spans Active Harmonic Filters (AHF), Static Var Generators (SVG), Medium-Voltage Dynamic Compensation, and Silicon Carbide (SiC) power electronics to safeguard mission-critical industrial electrical systems.

1994
Established Engineering Track Record
3.5M+
Annual Rated Capacity (A/kvar)
50+
Countries Deployed Globally
3,000+
EPC & Industrial Partners
Industrial Equipment Portfolio

iKonMac Core Power Quality Equipment Portfolio

Modern industrial power distribution networks face compounding challenges from high-frequency switching, variable frequency drives, and non-linear power converter loads. iKonMac designs, engineers, and manufactures modular Active Harmonic Filters, Static Var Compensators (SVG), High Voltage dynamic compensation systems, and next-generation Silicon Carbide power electronics to eliminate harmonic distortion, correct low power factor, balance three-phase voltage, and safeguard critical electrical infrastructure.

Active Harmonic Filter Modular Cabinet
2nd to 50th Harmonics THDi Under 5%

Active Harmonic Filter (AHF) Modular Systems

Engineered for low-voltage industrial networks (400V to 690V), iKonMac Active Harmonic Filter systems utilize dual DSP+FPGA control architectures to detect and inject counter-phase harmonic currents in real time, neutralizing distortion and ensuring full IEEE 519 compliance.

  • · Compensation Capability: Selective mitigation across the 2nd to 50th harmonic orders with concurrent power factor correction
  • · Dynamic Response: Sub-5 millisecond overall response speed with microsecond digital sampling cycles
  • · Modular Architecture: Standard 50A, 75A, 100A, and 150A rack modules scalable up to multi-megavolt-ampere systems
Static Var Compensator Power Quality Module
Stepless Regulation Target PF > 0.99

Static Var Compensator (SVG) Reactive Systems

High-speed Static Var Compensator hardware providing continuous, bidirectional inductive and capacitive reactive power injection. Completely eliminates over-compensation and switching surges common to legacy capacitor banks.

  • · Operational Range: Stepless dynamic regulation across -1.0 to +1.0 power factor envelope
  • · Voltage Stabilization: Eliminates rapid voltage flicker, sag events, and severe three-phase load imbalances
  • · Reliability Design: Independent thermal duct separation protecting power electronics from industrial airborne dust
High Voltage Static Var Generator Containerized
6kV / 10kV / 35kV Direct Grid Connection

High Voltage SVG Medium-to-High Grid Units

Cascaded multilevel H-bridge converter topology engineered for direct connection to 6kV, 10kV, and 35kV medium and high-voltage distribution networks, eliminating the requirement for intermediary step-up power transformers.

  • · Deployment Options: Indoor switchgear lineups or all-weather ISO thermal-insulated containerized packages
  • · Grid Code Compliance: Comprehensive low-voltage ride-through (LVRT) and high-voltage ride-through (HVRT) capability
  • · Optical Isolation: Fiber-optic signal isolation protecting digital control buses from high-voltage transients
Ultra Active Harmonic Filter Precision Equipment
Ultra-Fast Sampling Semiconductor Grade

Ultra Active Harmonic Filter for Extreme Loads

Designed for semiconductor fabrication cleanrooms, advanced automated robotics, and severe dynamic industrial cycles. Offers enhanced carrier frequency control and specialized compensation algorithms for complex inter-harmonics.

  • · Spectral Precision: Targeted suppression of non-integer harmonics and high-order resonant frequencies
  • · Transient Tracking: Microsecond-level control loop tracking sudden load steps without overshoot
  • · Low Noise Profile: Specialized EMI filter integration compliant with stringent high-tech laboratory benchmarks
Silicon Carbide Power Converter Technology
3rd-Gen SiC MOSFETs Efficiency > 99% 40% Footprint Reduction

Silicon Carbide Power Electronics Systems

Next-generation power converters built with wide bandgap Silicon Carbide power electronics semiconductors. Delivers substantially lower switching losses, significantly reduced heat generation, and industry-leading volumetric power density for mission-critical facilities, hyperscale data centers, and advanced manufacturing plants.

  • · Thermal Efficiency: Minimal heat dissipation drastically reduces HVAC cooling requirements
  • · Energy Conservation: Ultra-low standby operational losses maximize lifecycle electrical savings
  • · Switching Bandwidth: High switching frequency capability with superior acoustic noise elimination
  • · Compact Footprint: 40% volume reduction streamlines integration into space-constrained electrical rooms

Custom Modular Scalability and Engineering Turnkey Delivery

iKonMac operates fully integrated R&D and production facilities, delivering customized OEM/ODM power quality hardware and turnkey switchgear enclosures across global markets. Every system undergoes 100% full-load burn-in testing and rigorous factory acceptance verification.

All Products

Browse the full iKonMac power quality catalog across Active Harmonic Filters, Static Var Generators, High Voltage SVG units, Ultra AHF systems, and Silicon Carbide power electronics - engineered for industrial grids, semiconductor fabs, data centers, and utility interconnects.

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Engineering Selection Architecture

Power Quality Equipment Selection and Engineering Decision Logic

Specifying industrial power quality mitigation equipment requires an exacting technical appraisal of non-linear current spectra, point of common coupling (PCC) fault levels, transient dynamics, and switchgear thermal envelopes. Industrial distribution networks frequently face composite electrical phenomena, where commutation notches from variable frequency drives, cycle-by-cycle reactive swings from dynamic automation, and strict thermal limits in pressurized switchrooms intersect. Selecting between dedicated active filtering, high-speed static var compensation, or wide-bandgap solid-state electronics dictates long-term grid stability and system efficiency.

iKonMac delivers a structured sizing framework for consulting engineers, utility integration teams, and industrial EPC contractors. By systematically evaluating mitigation objectives, primary distribution voltages, step-response dynamics, and operational duty cycles, electrical engineering teams can deploy standardized modular active harmonic filters, high-voltage static var generators, or silicon carbide converters engineered for continuous IEEE 519 compliance, zero harmonic resonance, and optimal displacement power factor.

Mitigation Target Analysis Grid Voltage and Topology Operating Severity and Footprint

Harmonic Mitigation Versus Reactive Power Compensation

The foundation of power quality hardware selection lies in isolating the dominant electrical inefficiency: current harmonic spectrum distortion, displacement power factor shortfall, phase current asymmetry, or a coupled multi-variable disturbance profile.

Dominant Harmonic Pollution

Active Harmonic Filtering

Engineered for distribution buses dominated by 6-pulse and 12-pulse rectifiers, DC drive systems, and heavy UPS banks where non-linear current distortion drives high neutral currents, transformer overheating, and IEEE 519 compliance breaches.

  • · Mitigation Range: 2nd through 50th harmonic orders selectable
  • · Performance Target: THDi suppressed below 3% to 5% at full rated load
  • · Recommended Hardware: Modular Active Harmonic Filter (AHF)
Rapid Reactive Power Fluctuations

Static Var Generation

Designed for dynamic inductive or capacitive cycling loads, replacing electro-mechanical contactor-switched capacitor banks to eliminate harmonic resonance, contactor wear, over-voltage spikes, and severe utility low power factor penalties.

  • · Compensation Range: Continuous stepless -1.00 to +1.00 power factor
  • · Response Dynamics: Sub-cycle compensation with response under 5 milliseconds
  • · Recommended Hardware: Static Var Compensator / SVG Module
Coupled Power Quality Disturbances

Hybrid AHF and SVG System

Applied in complex multi-load processing facilities experiencing severe non-linear harmonic injection paired with continuous phase unbalance and cyclic reactive power swings across shared distribution transformers.

  • · Dual-Vector Capability: Co-ordinated THDi reduction and power factor correction
  • · Dispatch Architecture: Centralized digital DSP/FPGA prioritized control
  • · Recommended Hardware: Integrated Modular AHF + SVG Lineup

Comprehensive Technical Parameter and Architecture Comparison

Compare key operating ratings, nominal voltage coverage, dynamic control bandwidths, and target industrial installations across the standard iKonMac power quality hardware families.

Equipment Line Rated Grid Voltage Primary Mitigation Metric Dynamic Response Time Typical Target Applications
Active Harmonic Filter 208V / 400V / 480V / 690V 2nd to 50th Harmonics, THDi < 5% < 5 ms Industrial VFDs, Commercial Buildings, Municipal Pumping
Static Var Compensator 400V / 480V / 690V Continuous Bidirectional Var, PF 0.99 < 5 ms Solar PV Arrays, Wind Farms, Port Cranes, Dynamic Hoists
High Voltage SVG 6kV / 10kV / 24kV / 35kV Dynamic Var, Substation Voltage Stability < 10 ms Electric Arc Furnaces, Utility Interconnects, Mining Substations
Ultra Active Harmonic Filter 400V / 480V / 690V Ultra-High Harmonic Purity, Transient Shock < 2 ms Semiconductor Fabs, Automotive Press Lines, Precision Tooling
Silicon Carbide Power Electronics 400V / 480V Peak Efficiency (>99%), High Power Density < 3 ms Hyperscale Data Centers, High-Density Server Pods, Mission-Critical UPS
Engineering Consultation

Custom Sizing Schemes and System Simulation Assessments

Accurate power quality equipment sizing prevents costly capital over-specification while ensuring continuous compliance during severe production cycles. iKonMac application engineers deliver comprehensive sizing studies based on on-site electrical measurement logs, single-line diagrams, and non-linear load spectra. We provide complete harmonic flow simulations and transient stability verifications to support guaranteed IEEE 519 and IEC 61000 compliance prior to manufacturing release.
Required for Sizing Analysis: Single-line diagram (SLD), transformer rating & impedance, variable frequency drive inventory, and measured THDv/THDi log files.
Engineering Deliverables: Detailed capacity calculation, dynamic simulation assessment, thermal dissipation estimate, and preliminary arrangement drawings.
Engineering Architecture & Reliability

iKonMac Power Electronics Architecture and Hardware Reliability

Dynamic industrial grids require active harmonic mitigation and reactive power compensation capable of handling extreme di/dt surges, asymmetrical phase imbalances, and nonlinear drive spectra. Shanghai iKonMac Technology Co., Ltd. builds its modular power electronics on an industrial-grade physical and digital topology developed by a dedicated R&D engineering team of more than 50 PhD and Master’s degree holders in power electronics and electrical systems.

By pairing high-speed FPGA processing cores with silicon carbide power electronics and isolated physical thermal chimneys, iKonMac hardware delivers ultra-fast harmonic compensation while safeguarding critical circuit boards from corrosive industrial atmospheres, harmonic thermal stress, and voltage transients.

< 5ms RESPONSE

Multilevel Topology and Dual DSP+FPGA Control

Our multi-level converter control architecture couples dual 32-bit floating-point DSPs with an ultra-fast FPGA core, running microsecond-level algorithmic cycle loops that decompose current vectors, isolate distortion, and command PWM gating in real time.

  • Instantaneous Harmonic Isolation: Simultaneously isolates and cancels individual harmonic orders from the 2nd to the 50th order with independent gain selection.
  • SVPWM Switching Precision: Space-vector modulation mitigates switching ripples, reduces neutral-point shifting, and avoids excitation of line resonances.
  • Master-Slave Redundancy: Distributed optical CAN communication supports multi-module parallel control with automatic master failover to prevent downtime.

Compliant with IEEE 519 & IEC 61000-4-30 Class A Standards

99% OPERATIONAL EFFICIENCY

Wide-Bandgap Silicon Carbide (SiC) Power Stages

iKonMac integrates wide-bandgap SiC MOSFET modules into active power filter and SVG stages, drastically cutting switching losses, improving switching frequencies, and lowering heat dissipation compared to conventional silicon IGBT assemblies.

  • Minimized Thermal Dissipation: Up to 60% lower semiconductor losses under continuous rated current reduce auxiliary cooling loads and operating costs.
  • 40% Volume Reduction: High power density enables compact 19-inch rack enclosures, conserving footprint inside space-constrained electrical rooms.
  • Thermal Shock Durability: Higher junction temperature ratings maintain continuous power factor correction and filtering under severe ambient heat.

Verified by 100% Thermal & High-Voltage Withstand Testing

IP20 TO IP54 RATINGS

Isolated Thermal Ducts and Industrial Enclosure

Industrial deployment exposes power conditioning hardware to conductive dust, chemical vapors, and thermal cycling. Our mechanical design isolates high-power thermal exhausts from sensitive low-voltage control electronics via dedicated airflow barriers.

  • Segregated Forced Air Cooling: Independent cooling channels route heatsink exhaust directly to cabinet vents without contaminating logic boards.
  • Conformal Coating Protection: Industrial-grade PCB coating safeguards signal paths against airborne moisture, metal dust, and corrosive fumes.
  • Hot-Swappable Rack Architecture: Standardized withdrawable module trays allow rapid maintenance and field expansion with zero disruption to main buses.

Built Under ISO 9001 / ISO 14001 Quality Protocols

Industrial Electrical Reliability by Design

Heavy-duty industrial applications demand that active harmonic filters and static var compensators maintain continuous uptime during severe voltage sags, switching transients, and abrupt load changes. iKonMac equips every modular unit with heavy-duty DC-link bus protection, low-loss magnetic filtering reactors, and redundant electromagnetic shielding to support high noise immunity in severe EMI environments.

By integrating advanced Silicon Carbide power converter topology with multi-core digital control algorithms, our hardware maintains sub-cycle dynamic response and full current-limiting capabilities under extreme load swings. Whether deployed in semiconductor fabs, steel rolling mills, or hyperscale cloud data centers, iKonMac hardware delivers documented harmonic compliance and long-term operating stability.

Modular Power Electronics Architecture and Silicon Carbide Converter Assembly

Explore Our Complete Quality Assurance & Testing Protocols

Learn how iKonMac validates system endurance through full-load thermal burn-in, factory acceptance testing (FAT), and third-party type test certifications.

Proven Industrial Performance

Harsh Industrial Scenarios and Load Matching Capabilities

iKonMac power quality equipment provides precise harmonic mitigation, instantaneous reactive compensation, and voltage stabilization across demanding infrastructures in over 50 countries.

Semiconductor cleanroom wafer fabrication facility
Semiconductor & Fabs

Semiconductor & Precision

Eliminates high-order harmonic distortion from variable frequency cleanroom drives, lithography lasers, and automated material handling systems with an advanced ultra active harmonic filter.

Recommended Configuration Ultra Active Harmonic Filter
Harmonic THDi Level 32% → 3.2%
Heavy industry steel mill and metallurgy melting facility
Heavy Industry

Steel Metallurgy & Mills

Neutralizes violent reactive power surges, three-phase load imbalances, and severe voltage flicker generated by electric arc furnaces and rolling mills using our high voltage SVG.

Recommended Configuration High Voltage SVG
Maintained Power Factor 0.99 Target
High density server racks in enterprise green data center
Data Centers

Green Computing Hubs

Suppresses high-frequency switching noise and modular UPS harmonic reflection across high-density AI clusters while optimizing thermal headroom.

Recommended Configuration Silicon Carbide Power Electronics
Conversion Efficiency 99.0% Nominal
Utility scale solar photovoltaic and wind energy farm substation
Renewable Energy

Solar PV & Wind Farms

Delivers continuous bi-directional dynamic reactive compensation via a static var compensator and provides critical LVRT/HVRT voltage support to satisfy stringent utility grid codes.

Recommended Configuration Static Var Compensator
Dynamic Response Time < 5ms Dynamic

Facing Complex Grid Demands or Severe Load Fluctuations?

Our senior application engineers provide comprehensive single-line diagram (SLD) reviews, harmonic simulations, and tailored equipment sizing.
Manufacturing Standards & Quality Control

Rigorous Manufacturing Standards and Full-Process Quality Control

Engineered for zero-defect reliability across demanding global utility and industrial networks, iKonMac executes an uncompromising multi-stage quality verification regimen. Operating from our advanced production facilities with over 3.5 million A/kvar annual capacity, every active harmonic filter, static var generator, and Silicon Carbide power converter undergoes strict physical, electrical, and thermal screening to support flawless IEEE 519 and IEC standard compliance in the field.

Four-Stage Factory Verification and Stress Testing

End-to-end component screening and system-level burn-in protocols engineered for mission-critical electrical environments.

01

Component-Level Stringent Screening

All critical power semiconductors, including 3rd-generation silicon carbide power electronics MOSFETs, high-speed IGBT switches, specialized copper-wound harmonic filter reactors, and ultra-low ESR DC capacitors, undergo automated thermal aging, high-voltage insulation tests, and gate-driver characteristic verification before assembly.

100% Inbound Inspection Thermal Shock Screening Dielectric Hipot Testing
02

100% Full-Load Factory Burn-in

Prior to final packaging, every assembled power module and cabinet system undergoes 72 hours of uninterrupted full-load burn-in testing inside climate-controlled high-temperature bays. Real-time dynamic grid disturbances, abrupt load steps, and severe harmonic resonance scenarios are simulated to eliminate early failure risks.

72-Hour Full-Load Burn-in Infrared Thermography Transient Step Injection
03

International Standard Compliance

Equipment performance is strictly verified against IEEE 519 harmonic mitigation thresholds, IEC 61000-4 electromagnetic compatibility limits, and CE Low Voltage Directives. Precision multi-channel power analyzers validate that total harmonic current distortion (THDi) remains consistently below 3% under full rated output.

IEEE 519 Compliant IEC 61000-4 Class A CE Certified
04

Full Lifecycle Traceability

Each manufactured unit is assigned a permanent, unique serial code linking raw component lot numbers, automated calibration logs, test engineer sign-offs, and dedicated Factory Acceptance Test (FAT) records in an immutable archive for complete lifecycle support and post-commissioning service.

Unique Unit Serial ID Dedicated FAT Dossier ERP Lifecycle Archival

Testing Standards and Certification Matrix

Global electrical compliance verified through accredited laboratories, rigorous type tests, and comprehensive FAT/SAT procedures.

Harmonic & Power Standard
IEEE 519 & IEEE 1459

Total demand distortion and harmonic voltage limits validated across point of common coupling (PCC) configurations up to the 50th harmonic order.

EMC & Immunity
IEC 61000-4 Series

Certified for Class A industrial electromagnetic environments, electrostatic discharge immunity, and high-energy surge withstand capabilities.

Quality Management
ISO 9001:2015 Certified

Standardized lean manufacturing processes, ESD-safe assembly workstations, and continuous statistical process control across all production lines.

International Conformity
CE LVD & EMC Directives

Full European Union conformity assessment for electrical insulation, enclosure integrity ratings from IP20 to IP54, and operator safety.

Factory Acceptance Testing (FAT) & Global Engineering Support

For international EPC contractors and utility engineers, iKonMac provides witnessed on-site and high-definition remote Factory Acceptance Testing for each static var compensator and power quality system. Our test bay engineers execute real-time harmonic mitigation demonstrations, dynamic step-load reactive response curves, and three-phase balance tests before dispatch.

100% FAT Inspection Coverage
< 5 ms Verified Dynamic Response
50+ Export Markets Served

Comprehensive Quality Documentation and Third-Party Type Test Records

Access complete type test reports, dimensional CAD/BIM drawing packages, harmonic mitigation simulation data, and quality assurance compliance documentation tailored for your project engineering requirements.

Factory Verified Quality Standards
Technical FAQ

Power Quality Product Selection and Technical FAQ

Accurate active harmonic filter sizing depends on whether field measurements are accessible or preliminary engineering estimates must be established during the FEED stage. For retrofit installations, on-site power quality analyzers measure root-mean-square harmonic current spectra (2nd through 50th order) under peak non-linear load conditions.

For greenfield design where empirical waveform recordings are unavailable, sizing calculations apply standard harmonic distortion coefficients across identified non-linear equipment groups:

  • Empirical Non-Linear Load Assessment: Multiply the rated full-load current of non-linear equipment (VFDs, rectifiers, UPS systems) by the expected total harmonic current distortion factor (typically 28% to 35% for standard 6-pulse topologies).
  • Transformer Sizing Ratio Method: In multi-load industrial substations, required harmonic mitigation capacity generally ranges between 20% and 30% of the distribution transformer secondary full-load ampere rating.
  • Design Headroom Factor: iKonMac engineering guidelines mandate a minimum 15% to 20% safety margin to support thermal headroom and accommodate future operational expansion without triggering inverter saturation.

This rigorous sizing protocol Supports strict IEEE 519 compliance at the Point of Common Coupling (PCC) while preventing redundant capital expenditure.

Direct Factory Engineering Support

Request Customized Power Quality Equipment Configuration and Engineering Proposal

Provide your single-line diagram (SLD) or power quality measurement report. Our senior electrical engineering team will deliver equipment sizing calculations for your active harmonic filter, dynamic static var compensator, and utility-scale high-voltage SVG installations, alongside IEEE 519 simulation analysis and comprehensive factory direct quotations within 24 hours.
Direct Engineering Line & WhatsApp
+86 176-2152-9866
Rapid consultation for urgent specifications and sizing
Official Commercial & Tender Desk
sales@ikonmacglobal.com
Send single-line diagrams, tender packets, and schematics
Global R&D & Manufacturing Center
Shanghai Pudong Manufacturing Base
Full-load testing platforms, FAT inspection, and assembly lines
Shanghai iKonMac Technology Co., Ltd. delivers engineered power quality hardware and turnkey technical collaboration across 50+ countries.
24h Proposal Turnaround IEEE 519 & IEC Certified
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