1 z 3

General Electric IS220PSFDH1A Mark VI Speedtronic Flame Detector Power Supply Pack

General Electric IS220PSFDH1A Mark VI Speedtronic Flame Detector Power Supply Pack

Only 2 item(s) left in stock
  • Manufacturer: General Electric

  • Product No.: IS220PSFDH1A

  • Country of origin:United States

  • Product Type: Power Supply Pack

  • Barcode: 8537101190

  • Payment: T/T, Western Union

  • Weight: 380g

  • Dimensions: 12.8cm x 8.2cm x 6cm

  • Shipping port: Xiamen

  • Warranty: 12 months

Množství
Zobrazit veškeré podrobnosti

Description

The IS220PSFDH1A is a specialized Flame Detector Power Supply pack manufactured by General Electric as part of the Mark VI Speedtronic Turbine Control System Series. This modular assembly is engineered to provide reliable, high-voltage electrical excitation directly to the flame detector circuits located on the primary gas turbine trip protection board (TRPG). Acting as a critical link within the turbine safety and flame monitoring infrastructure, the IS220PSFDH1A interfaces seamlessly through physical hardware connections to drive active optical sensors and ensure deterministic feedback verification. The base printed circuit board is protected comprehensively with a chemically-applied conformal coating layer, ensuring resilience against airborne contaminants and harsh ambient environments typical of industrial power generation facilities.

Features

  • Integrated Group 1 Mark VI series modular architecture designed for high-reliability turbine trip safety integration.
  • Fully passive convection-cooled hardware layout completely eliminating failure-prone mechanical cooling fans.
  • Exhaustive, thin layer of chemically-applied conformal PCB coating to mitigate risks of oxidation and atmospheric tracing.
  • Equipped with three dedicated faceplate diagnostic LEDs (one red, two green) indicating precise module operational states and active internal functional faults.
  • Features a factory-configured, pure solid-state design requiring no manual jumper switches or hardware setting adjustments.

Applications

  • Gas turbine optical flame detection monitoring loops within Speedtronic power systems.
  • Centralized turbine protection arrays coupled directly to TRPG safety trip boards.
  • Alternative energy infrastructures and legacy wind-power automation platforms built upon Mark VI network backbones.

Technical Specifications

Parameter Specification Value
Manufacturer General Electric
Part/Model Number IS220PSFDH1A
Functional Abbreviation PSFD
Product Series Mark VI Speedtronic
Assembly Classification IS220 Special Assembly (Group 1 Layout)
Primary Functional Revision A (Alters baseline performance and electrical execution)
Maximum Input Voltage 29.4 V dc
Startup Operational Time 34 mS (At full load with 28 V dc input source)
Full-Load Power Consumption 4.1 W
Maximum Open-Circuit Output Voltage 355 V dc (At zero load with 29.4 V dc input)
Local Output Diagnostic Interface Differential pair TP test points
Physical Enclosure Geometry Rectangular industrial housing
Working Temperature Range -30 degrees Celsius to +65 degrees Celsius
Cooling Methodology Natural Convection (Fanless)
Country of Origin United States (Domestic GE Manufacture)

Connections and Interfaces

Interface Connection Function / Circuit Assignment
J3 Connector Flame detector power supply circuit link 1 to TRPG board
J4 Connector Flame detector power supply circuit link 2 to TRPG board
J5 Connector Flame detector power supply circuit link 3 to TRPG board
TP Test Points Differential hardware probe points for local output voltage verification
Faceplate IR Port Infrared port (Not used / Inactive in production assembly)

Application Pitfalls & Engineering Notes

Engineers should note that the internal step-up circuitry of this module generates high-voltage operational spikes reaching up to 355 V dc under zero-load conditions given a maximal input profile of 29.4 V dc. Ensure appropriate voltmeter instrumentation is set to withstand high-voltage ranges when troubleshooting local test points. The integrated infrared (IR) interface located on the front panel faceplate remains non-functional and must not be used for diagnostic calibration sequences.

Commissioning & Wiring Tips

When monitoring live operational parameters during start-up tracking loops, connect calibrated multi-meter leads carefully across the differential pair of TP test points. Given that this module outputs high potential within 34 milliseconds from full-load engagement, transient verification should be performed using storage-type digital oscilloscopes to correctly isolate output ripple factors or installation tracking noise.

Installation Guidelines

CRITICAL WARNING:

This device generates open-circuit potential up to 355 V dc. Disconnect and verify absolute zero energy on all primary DC input networks before handling interface modules or tracking structural wires. Touching active connections will result in severe electrical shock injuries or immediate card short-circuit failure.

1

Mount the rectangular pack assembly directly above the TRPG (primary gas turbine trip protection board) on a stable sheet metal surface structure.

2

Secure the assembly base mechanical layout using specified mounting studs, mounting brackets, and the designated mounting plate to limit physical shock deformation.

3

Firmly couple the primary power routing interfaces into connectors J3, J4, and J5 on the TRPG board to establish complete signal path paths for the flame detection array.

What is the maximum output voltage generated by this power pack under open-circuit conditions?

When the pack operates with zero load and receives an input potential of 29.4 V dc, it can generate an open-circuit output voltage reaching up to 355 V dc.

How fast does the power pack initiate full hardware operation upon startup?

The module features a startup duration of precisely 34 milliseconds when executing under full-load conditions with an input configuration of 28 V dc.

Through which hardware intersections does the pack connect to the turbine safety system?

The assembly routes output power straight into the flame detector circuit located on the primary gas turbine trip protection board via interfaces J3, J4, and J5.

How can an engineer verify output voltage locally on an installed unit?

Output voltage levels can be monitored safely using a differential multimeter probe arrangement applied directly across the physical TP test points.

Global Express Shipping

  • Standard Delivery: 4-6 Business Days via DHL, FedEx, and UPS.
  • Express Dispatch: Same-day dispatch for in-stock orders placed before 2:00 PM (GMT+8).
  • Worldwide Coverage: Serving over 150 countries, including rapid delivery to Saudi Arabia and UAE.

Returns & Warranty

  • 30-Day Guarantee: Returns accepted for in-stock products in original, factory-sealed packaging.
  • 12-Month Warranty: Every industrial component is backed by our professional technical warranty.

Orders are processed and delivered Monday-Friday (excluding public holidays).


For full eligibility, restocking fees, and international return details, please view our official Refund & Return Policy .

TECHNICAL SPECIFICATIONS

Color pattern
Black
Country of origin
United States
Power source
DC Power

Recently Viewed Products

Technical knowledge

Modernizace HMI Bailey INFI 90 Symphony běžících na OpenVMS Alpha

Praktický průvodce výměnou zastaralých operátorských stanic Bailey Symphony běžících na OpenVMS Alpha. Porovnává emulaci Alpha, migraci OpenVMS na x86, přemostění OPC a postupnou modernizaci ABB.

Proč jsou údaje o údržbě nezbytné pro průmyslovou spolehlivost

Údaje o údržbě propojují pracovní příkazy, signály ze senzorů, historii majetku, náklady a znalosti techniků. Správné využití těchto dat zlepšuje plánování, spolehlivost, prediktivní údržbu, kontrolu...

Elektrické pohony navržené jako náhrada hydraulických systémů: Praktická příručka průmyslové automatizace

Tento článek vysvětluje, jak integrované elektrické pohony, jako je řada e-Actuator od SMC, mění průmyslové řízení pohybu nahrazením tradičních pneumatických a hydraulických systémů. Zdůrazňuje...

Matematické operace pomocí OpenPLC pro průmyslové automatizační aplikace

Tento článek vysvětluje, jak PLC systémy provádějí základní matematické operace, jako jsou sčítání, odčítání, násobení, dělení, modulo a umocňování v rámci průmyslové automatizace. Ukazuje, jak tyto...

Pokročilá Booleovská logika s programováním FBD PLC: Praktické průmyslové aplikace nad rámec základní logiky

Článek vysvětluje několik pokročilých funkcí Booleovy logiky používaných v programování PLC nad rámec základních operací AND, OR a NOT. Popisuje, jak se v diagramu funkčních bloků (FBD) využívají...

Booleovská logika v programování PLC: Pochopení logických bran FBD

Booleovská logika je základem každého programu PLC. Od jednoduchých ovládání strojů až po složité průmyslové automatizační systémy určují logické hradla, jak řadiče reagují na měnící se vstupy a...