1 de 3

Module d'alimentation General Electric IC697PWR711

Module d'alimentation General Electric IC697PWR711

Il ne reste que 4 article(s) en stock
  • Fabricant : General Electric

  • N° de produit : IC697PWR711

  • Pays d'origine :États-Unis

  • Type de produit : Module d'alimentation

  • Code-barres : 8537101190

  • Paiement : Virement bancaire, Western Union

  • Poids : 900g

  • Dimensions : 20cm x 11.5cm x 5.7cm

  • Port d'expédition : Xiamen

  • Garantie : 12 mois

Quantité
Voir les détails complets

The GE Fanuc IC697PWR711 functions as a rack-mounted power supply module engineered exclusively for the Series 90-70 Programmable Logic Controller platform and VME Integrator chassis configurations. This single-slot hardware assembly mounts directly into the leftmost slot (Slot 1) of the system rack, mating with a standard 48-pin backplane connector to establish the primary power distribution backbone. It delivers a total regulated output capacity of 100 watts across three independent DC voltage rails (+5 VDC, +12 VDC, and -12 VDC) to drive localized logic processing circuits and I/O infrastructure. Beyond basic voltage rectification, the module incorporates dedicated logic-level sequencing hardware that continuously monitors input line integrity to broadcast emergency ACFAIL and SYSRESET signals across the backplane, ensuring highly synchronized initialization diagnostics and controlled fail-safe system shutdowns during brownout events.

Features

  • Direct slide-in rack installation architecture optimized for high-density Series 90-70 backplane matrices.
  • Triple output DC voltage rails delivering up to 100 watts of continuous, concurrent system load power.
  • Pre-wired expansion link capabilities supporting dual-rack operations from a single power supply module via extension cabling.
  • Integrated electronic short-circuit and overvoltage protection networks built directly into all internal output paths.
  • Active power factor correction circuitry embedded to maintain a power factor greater than 0.93 during AC network sourcing (applicable to Version C and later).
  • Automated hardware signal sequencing engine driving real-time chassis diagnostics via prominent front-panel LED indicators.
  • Full structural VME system compliance natively designed to interface with standard VME C.1 backplane configurations.

Applications

  • High-capacity infrastructure power management across heavy industrial Series 90-70 PLC processing cells.
  • Power delivery architectures for complex VME-based industrial integration and processing platforms.
  • Multi-rack automation hardware expansions requiring synchronized dual-chassis power sharing.
  • Critical manufacturing processes exposed to voltage fluctuation risks requiring guaranteed ride-through capabilities.

Ordering Information

Catalog Number Description
IC697PWR711 / 713 (Versions A and B) Power Supply, 120/240 Volts AC Input, 100 Watts Maximum Output Capacity
IC697PWR711 / 713 (Version C or Later) Power Supply, 120/240 Volts AC or 125 Volts DC Input, 100 Watts Maximum Output Capacity
IC697CBL700 Power Supply Extension Cable (Includes interconnect cable and blank faceplate for slot matching in secondary rack)

Technical Specifications

Specifications for IC697PWR711 Versions A and B
Parameter Specification
Nominal Rated Voltage 120 VAC or 240 VAC
Input Voltage Range (AC Input) 90-132 VAC or 180-264 VAC, 50-60 Hz
Input Power 160 watts maximum at full rated load
Input Half Cycle Peak Inrush 55 amps typical, 77 amps maximum
Output Power Capacity 100 watts maximum total shared across all 3 outputs
Output Voltage (+5 VDC Rail) 4.90 to 5.25 volts (5.07 volts nominal)
Output Voltage (+12 VDC Rail) 11.75 to 12.6 volts
Output Voltage (-12 VDC Rail) -12.6 to -11.75 volts
Overvoltage Limit (+5 VDC Output) 5.7 to 6.7 volts
Overcurrent Protective Limit (+5V) 26 amps maximum
Overcurrent Protective Limit (+12V) 4 amps maximum
Overcurrent Protective Limit (-12V) 2 amps maximum
Holdup Time Capacity 21 milliseconds minimum sustained from point of loss of AC input
VME System Compliance Integrated hardware layout optimized to support VME standard C.1
Internal Fuse Rating & Type 3AG, 3 amp, 250 volt standard protective fuse
Terminal Block Screw Torque 12 in-lbs (1.3 N-m)
Manufacturer GE Fanuc Automation
Country of Origin USA
Shipping Weight (Calculated) 1.85 kg
Package Dimensions (Calculated) 280 mm x 220 mm x 85 mm
Specifications for IC697PWR711 Version C and Later
Parameter Specification
Nominal Rated Input Voltage 120/240 VAC, or 125 VDC
Input Voltage Range (AC Sourcing) 90 to 264 VAC, 47 to 63 Hz operational limits
Input Voltage Range (DC Sourcing) 100 to 150 VDC continuous input window
Input Power Draw 135 watts typical, 160 watts maximum load envelope
Input Half Cycle Peak Inrush 3 amps typical continuous limit
Active Power Factor Greater than 0.93 continuous at full operational loads
Output Power Capacity 100 watts maximum total combined across all 3 output paths
Output Voltage (+5 VDC Rail) 4.90 to 5.25 volts (5.07 volts nominal reference)
Output Voltage (+12 VDC Rail) 11.75 to 12.6 volts
Output Voltage (-12 VDC Rail) -12.6 to -11.75 volts
Overvoltage Limit (+5 VDC Output) 5.7 to 6.7 volts shutoff window
Overcurrent Limit (+5V Output) 21 amps typical protection threshold
Overcurrent Limit (+12V Output) 3.5 amps typical protection threshold
Overcurrent Limit (-12V Output) 1.6 amps typical protection threshold
Holdup Time Capacity 21 milliseconds minimum sustained from point of loss of AC input
Operating Temperature Range 0 to 60 Celsius (32 to 140 Fahrenheit) ambient
Storage Temperature Range -40 to +85 Celsius (-40 to +185 Fahrenheit) ambient
Internal Fuse Rating & Type 2 amp, 250 volt high-capacity safety fuse
Terminal Block Screw Torque 12 in-lb (1.3 N-m)
Manufacturer GE Fanuc Automation
Country of Origin USA
Shipping Weight (Calculated) 1.95 kg
Package Dimensions (Calculated) 280 mm x 220 mm x 85 mm

Connections and Interfaces

Connector Terminal / Pin Function / Circuit Allocation
L1 / 120 Hot AC connection terminal for 120 VAC operational configurations. (Versions A and B require external jumper mapping to engage).
N / 240 Neutral AC input node for 120 VAC configurations, or L2 line hot input connection for standard 240 VAC systems.
SELECT Voltage range configuration link terminal. (Install wire strap jumper for 120 VAC operation; leave open for 240 VAC networks on Versions A/B).
L1 (+) Positive potential interface terminal for external 125 VDC primary power distribution networks (applicable only to Version C and later).
L2 (-) Negative potential interface terminal for external 125 VDC primary power distribution networks (applicable only to Version C and later).
GND (Lug 1) Main protective structural safety earthing block integrated directly into the physical housing framework.
GND (Lug 2) Secondary shielding and instrumentation ground bus tie linked directly to incoming plant ground references.
Internal 48-Pin Backplane Connector High-reliability rear multi-contact matrix supplying the system backplane with stabilized logic voltages, ACFAIL warning logic, and SYSRESET sequencing signals.

Installation Guidelines

To secure reliable operational life, proper electrical isolation, and complete protection against noise propagation across the Series 90-70 backplane matrix, execute the following hardware mounting steps precisely.

1. Baseplate Power Safety Restrictions
CRITICAL WARNING: DE-ENERGIZATION MANDATE
Never insert, adjust, or extract any system components while the primary network supply line is live. De-energize all incoming distribution links completely before seating the power module. Hot-swapping is strictly prohibited.
  • The power supply assembly must occupy the leftmost dedicated slot location (Slot 1) in any standard rack configuration.
  • For dual-rack configurations utilizing the extension line cable link, ensure the combined concurrent load drawn by both backplanes remains below the absolute 100-watt operational design ceiling.
2. Enclosure Grounding & Shielding Techniques
  • Low-Impedance Earthing: Establish a secure connection from the terminal block safety GND screw to the overarching metallic chassis enclosure. Complete this link with solid or stranded copper AWG #12 (3.31 mm2) wire rated for 75 Celsius minimal threshold operating temperatures.
  • EMI Suppression Mapping: Tighten all four mechanical panel faceplate retention screws firmly into the metal framing channels. The two lower structural screws are designed to mate directly with the grounding tracks to discharge high-frequency radiation noise.
3. Input Cable Routing & Torque Controls
  • Run primary high-voltage incoming distribution infrastructure loops using heavy-duty copper AWG #16 (1.33 mm2) electrical wires.
  • All wire ends terminating at the front terminal strip must be cold-crimped into matching closed ring or spade-style terminals. Lock each screw down using an accurate hand torque wrench adjusted precisely to 12 in-lbs (1.3 N-m) of physical mechanical torque.
4. Execution Sequence & Initial Power-Up Loop
1
Verify Mechanical Seating
Slide the single-slot module along the card guides into Slot 1 until the rear 48-pin header is seated completely against the backplane connector. Tighten all 4 panel screws.
2
Affix Voltage Selection Jumpers (Applicable to Versions A/B)
Verify source potential grid properties. Install a copper shorting link strap across the SELECT terminals for 120 VAC lines, or leave the terminal completely open for 240 VAC sourcing grids.
3
Energize Sourcing Grid
Apply primary line potential and verify system health via the green front-panel diagnostic indicators. Continuous failure indications point to unseated terminal boards or loop component shorts.

Product Documentation

Technical Datasheet (PDF) Complete specifications and technical drawings.

Technical Datasheet

Module d'alimentation General Electric IC697PWR711

正在加载 PDF,请稍候…

What is the specific mechanical tightening torque value mandated for the primary terminal screws?

All electrical input power lines terminating at the front terminal board assembly must be securely locked down to a physical mechanical tightening torque limit of exactly 12 in-lbs (1.3 N-m).

What happens across the rack logic circuits if the main power input drops out momentarily?

The module contains integrated capacitive energy buffers providing a holdup time capacity of 21 milliseconds minimum. The output rails remain fully regulated within specification during this window, preventing false system shutdowns during transient line dips.

Are manual configuration jumpers required to scale the voltage limits on newer versions of this module?

No. On Version C and later, the module incorporates universal power input circuitry that automatically auto-senses and scales to input voltages spanning 90 to 264 VAC or 100 to 150 VDC without physical jumper links.

Does the module provide independent galvanic safety separation between the internal logic side and the incoming power source?

Yes. The power transformation architecture utilizes an isolated high-frequency transformer circuit to prevent electrical high-voltage transients from crossing over to the low-voltage logic processing circuits of the backplane.

Expédition express mondiale

  • Livraison standard : 4 à 6 jours ouvrables via DHL, FedEx et UPS.
  • Expédition express : Expédition le jour même pour les commandes en stock passées avant 14h00 (GMT+8).
  • Couverture mondiale : Service dans plus de 150 pays, avec livraison rapide en Arabie Saoudite et aux Émirats arabes unis.

Retours et garantie

  • Garantie de 30 jours : Retours acceptés pour les produits en stock dans leur emballage d’origine scellé en usine.
  • Garantie de 12 mois : Chaque composant industriel est couvert par notre garantie technique professionnelle.

Les commandes sont traitées et livrées du lundi au vendredi (hors jours fériés).


Pour connaître les conditions d’éligibilité complètes, les frais de restockage et les détails des retours internationaux, veuillez consulter notre site officiel Politique de remboursement et de retour .

TECHNICAL SPECIFICATIONS

Country of origin
États-Unis

Produits récemment consultés

Connaissances techniques

Guide des préhenseurs robotiques : de la manipulation délicate à l'automatisation lourde

Les pinces robotiques modernes évoluent au-delà des mâchoires mécaniques traditionnelles. Des systèmes adhésifs inspirés du gecko et des pinces souples de qualité alimentaire aux outils d'entrepôt...

Retour en arrière : comment les premiers moteurs électriques ont transformé l'exploitation minière souterraine

Des compresseurs à courant continu entraînés par corde aux wagonnets de mine alimentés par batterie, les premières opérations minières ont marqué un tournant dans l’électrification industrielle. Cet...

Factory I/O : un outil moderne de simulation PLC pour la formation à l'automatisation industrielle

Factory I/O révolutionne l'enseignement des automates programmables industriels (API) en proposant des simulations industrielles 3D immersives pour les étudiants, les ingénieurs et les équipes de...

Programmation des cycles de mouvement à axe unique sur un servo-variateur CMZ

Ce tutoriel examine comment la fonctionnalité PLC intégrée dans un servo-variateur CMZ SBD peut exécuter des programmes de mouvement autonomes, y compris la logique de référencement, le contrôle de...

Configuration de contrôle de mouvement à axe unique avec les servomoteurs CMZ

Ce tutoriel explore la mise en service d'un système de mouvement servo à un seul axe utilisant un variateur CMZ SBD, couvrant l'installation matérielle, la mise à l'échelle de l'axe, la configuration...

Intégration du PLC Mitsubishi FX avec le variateur FR-D700 et le contrôle HMI

Ce tutoriel explique comment les automates programmables Mitsubishi FX s'intègrent avec les variateurs de fréquence FR-D700 et les panneaux HMI pour le contrôle avant/arrière des moteurs. Il couvre...