BETAflam - Fire Resistant Cable (FRC)

BETAflam - Fire Resistant Cable (FRC)

BETAflam Cable for Ultimate Safety. Made in Swiss, LSOH Fire Resistant Safety Cable with circuit integrity according to BS 6387 CWZ / IEC 60331 - 21

BETAflam - Fire Resistant Cable (FRC)
BETAflam - Fire Resistant Cable (FRC)
BETAflam - Fire Resistant Cable (FRC)
BETAflam - Fire Resistant Cable (FRC)

Product Value

Product Value
The best Fire-resistant power cables with Copper stranded wire.
Product Value
Insulation BETAflam® mineral copolymer
Product Value
Made in Swiss
Product Value
LPCB - British Standart BS 6387 C.W.Z, IEC 6387, LSOH
  • BETAflam® FR-MI 110 SCSI / Single-core single insulated - Single core wires 0.6/1 kV for cable wiring systems with the highest fire performance and circuit integrity requirements. For high temperature conditions and extra long expected lifetime.

  • BETAflam® (N)HXCH FE180 / E30–E60 - Three-phase power cable 0.6 / 1 kV with concentric outer conductor for fixed installation in electrical cable systems with improved fire behaviour and system integrity according to DIN 4102 Part 12.
  • BETAflam® FR-SIR-U 90 - unscreened -  is an unshielded Fire Alarm Cable with excellent fire perfomance in case of fire and high circuit integrity characteristics.
  • BETAflam® FR-SIR-F 90 - screened - is a shielded Fire Alarm Cable with excellent fire perfomance in case of fire and high circuit integrity characteristics.

BETAflam mineral copolymer, cross-linked

Advantages of cross-linked insulation materials

  • Increased shear and compressive strength
  • Improved integrity in case of electrical failures (overload, short circuit)
  • Improved resistance to chemicals
  • Infusible, soldering iron resistance
  • Improved impact strength and crack resistance
  • Better weather and abrasion resistance
  • Non-flame propagating : EN 50399, EN 60332-3, IEC 60332-3, VDE 0482-266-2
  • Halogen-free cables : Serie EN 60754-1, IEC 60754-1 
  • Corrisive effects of combustion gases : EN 60754-2, IEC 60754-2 
  • Smoke density : EN 61034, IEC 61034 
  • Flame-retardant : EN 60332-1-2, IEC 60332-1-2
  • Insulation integrity under fire conditions : IEC 60331-21, DIN VDE 0472-814, BS 6387 C 
  • Insulation integrity when exposed to water : BS 6387 W, VdS 3423 
  • Insulation integrity with mechanical shock : EN 50200, EN 50362, VDE 0482-200, BS 6387 Z
  • Total system integrity under fire conditions : DIN 4102, Part 12

Rack-mounted AHF module

Modules AHF SVG Dimensions(W×D×H,mm) Wight - Net Weight (kg)
400V 50A 35kVar 440*425*88 14
75A 50kVar 440*425*88 17.5
Modules AHF SVG Dimensions(W×D×H,mm) Wight - Net Weight (kg)
400V 50A 35kVar 440*425*88 14
75A 50kVar 440*425*88 17.5


Modules AHF SVG Dimensions(W×D×H,mm) Wight - Net Weight (kg)
400V 50A 35kVar 440*425*88 14
75A 50kVar 440*425*88 17.5


Modules AHF SVG Dimensions(W×D×H,mm) Wight - Net Weight (kg)
400V 50A 35kVar 440*425*88 14
75A 50kVar 440*425*88 17.5
Static Var Generator Working Principle

Static Var Generator Working Principle

The active harmonic filter operates on a 3-level neutral point clamped (NPC) topology. As shown in the figure below, the traditional 2- level topology circuit structure consists of 6 IGBTs (2 IGBT power devices on each phase pin and current path), and in the 3-level

topology, there are 12 IGBTs (in each phase 4 IGBT power devices on pins and current paths). The 3-level topology circuit can generate three voltage levels at the output, including DC bus positive voltage, zero voltage and DC bus negative voltage. Two-level topology circuits can only output positive and negative voltages. At the same time, the three-level topology circuit also ensures higher quality and better harmonic output voltage, thereby reducing output filter requirements and associated costs.

SinL-Series AHF / SVG Load Balancing For 3P3W and 3P4W

SinL-Series AHF / SVG Load Balancing For 3P3W and 3P4W

The active harmonic filter operates on a 3-level neutral point clamped (NPC) topology. As shown in the figure below, the traditional 2- level topology circuit structure consists of 6 IGBTs (2 IGBT power devices on each phase pin and current path), and in the 3-level

topology, there are 12 IGBTs (in each phase 4 IGBT power devices on pins and current paths). The 3-level topology circuit can generate three voltage levels at the output, including DC bus positive voltage, zero voltage and DC bus negative voltage. Two-level topology circuits can only output positive and negative voltages. At the same time, the three-level topology circuit also ensures higher quality and better harmonic output voltage, thereby reducing output filter requirements and associated costs.

Advantages of 3-Level Topology

Advantages of 3-Level Topology

The active harmonic filter operates on a 3-level neutral point clamped (NPC) topology. As shown in the figure below, the traditional 2- level topology circuit structure consists of 6 IGBTs (2 IGBT power devices on each phase pin and current path), and in the 3-level

topology, there are 12 IGBTs (in each phase 4 IGBT power devices on pins and current paths). The 3-level topology circuit can generate three voltage levels at the output, including DC bus positive voltage, zero voltage and DC bus negative voltage. Two-level topology circuits can only output positive and negative voltages. At the same time, the three-level topology circuit also ensures higher quality and better harmonic output voltage, thereby reducing output filter requirements and associated costs.

Text 400
Grid Voltage Range -15%~- +15%
Rated Current (A) 30、50、75、100、150
Frequency (Hz) 50/60Hz (-10%~+10%)
Harmonic Current Compensation Range 2nd to 50th Harmonic Order
Efficiency 98,5%
CT Configuration Closed or Open Loop (Open Loop is Recommended in Case of Parallel Operation)

Text 400
Grid Voltage Range -15%~- +15%
Rated Current (A) 30、50、75、100、150
Frequency (Hz) 50/60Hz (-10%~+10%)
Harmonic Current Compensation Range 2nd to 50th Harmonic Order
Efficiency 98,5%
CT Configuration Closed or Open Loop (Open Loop is Recommended in Case of Parallel Operation)

Text 400
Grid Voltage Range -15%~- +15%
Rated Current (A) 30、50、75、100、150
Frequency (Hz) 50/60Hz (-10%~+10%)
Harmonic Current Compensation Range 2nd to 50th Harmonic Order
Efficiency 98,5%
CT Configuration Closed or Open Loop (Open Loop is Recommended in Case of Parallel Operation)

Text 400
Grid Voltage Range -15%~- +15%
Rated Current (A) 30、50、75、100、150
Frequency (Hz) 50/60Hz (-10%~+10%)
Harmonic Current Compensation Range 2nd to 50th Harmonic Order
Efficiency 98,5%
CT Configuration Closed or Open Loop (Open Loop is Recommended in Case of Parallel Operation)

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