ABB UFC762AE101 3BHE006412R0101 | CVMI Coated Circuit Board

$4,650.00

ABB UFC762AE101, 3BHE006412R0101 is formally identified as a coated CVMI board, so the complete ordering code—not just the UFC762 family name—should be used when selecting a replacement.
Brand model:ABB 
Product Name:UFC762AE101 3BHE006412R0101
Warranty: 1 year
Origin:Switzerland
HS code:85389000.00
Inventory: Spot/Futures
Goods condition: Brand new
Delivery time: 3-4days/1month

Brand: Model/SKU: ABB UFC762AE101 3BHE006412R0101

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Description

  • Brand: ABB
  • Full Model Number: UFC762AE101
  • ABB Product ID: 3BHE006412R0101
  • ABB Type Designation: UF C762 AE101: CVMI
  • Product Description: CVMI Board, Coated
  • Lifecycle Status: Legacy industrial spare; exact OEM ordering status requires verification
  • Core Function in System: CVMI circuit board used within ABB industrial control and power-electronics equipment
  • Top 3 Hardcore Specs: CVMI board; coated PCB construction; ABB Product ID 3BHE006412R0101
  • Form Factor: Circuit board / rack-mounted electronic assembly
  • Customs Classification Listed by ABB: 85049090
  • Minimum Order Quantity: 1 piece
  • Condition & Lead Time: New, refurbished, or tested replacement stock subject to physical verification; emergency dispatch based on confirmed inventory

ABB’s product record identifies 3BHE006412R0101 as “UF C762 AE101: CVMI; CVMI-BOARD, COATED”. The ABB record also gives the exact type designation and a minimum order quantity of one piece.

Module 3: Technical Intro & Downtime Impact

A CVMI board failure can interrupt the measurement, interface, or control path inside an ABB power-electronics installation even when the surrounding cabinet remains physically intact. ABB UFC762AE101, 3BHE006412R0101 is formally identified as a coated CVMI board, so the complete ordering code—not just the UFC762 family name—should be used when selecting a replacement. This is particularly important for legacy ABB equipment where multiple board variants can share similar physical characteristics.

For MTTR reduction, the hard identification data are UFC762AE101, 3BHE006412R0101, and the ABB designation UF C762 AE101: CVMI. Public secondary sources publish conflicting descriptions of this part, including controller, servo, and generic interface functions. Those claims should not be treated as authoritative engineering specifications. —ABB’s own product record establishes the board as a coated CVMI board, while exact supply voltage, signal ranges, channel count, processor type, and operating temperature should be confirmed from the host-system documentation and the installed board revision.

ABB UFC762AE101 3BHE006412R0101

ABB UFC762AE101 3BHE006412R0101

Module 4: Dynamic Emergency Swap & Configuration Guide

1. Pre-Swap Prep — Identify the exact board position

  • Place the affected ABB system in the approved maintenance state.
  • Apply site lockout/tagout and isolate the applicable control power.
  • Verify absence of hazardous voltage before accessing the rack.
  • Record UFC762AE101 / 3BHE006412R0101 and the PCB revision.
  • Photograph the board, rack position, front connectors, rear connector interface, and adjacent cards.
  • Record all cable and terminal assignments.
  • Save the host-system configuration before disturbing the board.
  • Use ESD wrist protection and an antistatic work surface.

2. Removal — Treat the CVMI as a rack-level PCB

  • Confirm the cabinet is electrically safe.
  • Label every connected interface before disconnection.
  • Release the card-retention or extraction mechanism used by the installed rack.
  • Withdraw the board evenly along its guide rails.
  • Keep the PCB square with the mating connector during extraction.
  • Do not pull on cables, connector bodies, or individual pins.
  • Place the removed PCB in an ESD-safe container.
  • Inspect the backplane and connector contacts for corrosion, contamination, arcing, or thermal damage.

3. Installation & Configuration — Match the original CVMI build

  • Verify ABB UFC762AE101 / 3BHE006412R0101 before insertion.
  • Confirm hardware revision against the failed unit.
  • Verify the PCB layout and connector arrangement.
  • Install the board in the same rack position and orientation.
  • Seat the card fully without forcing the connector.
  • Restore all documented jumpers, switches, addresses, or configuration settings, where applicable.
  • Reconnect signal wiring exactly according to the original drawings and photographs.
  • Restore host-system configuration only after confirming the replacement revision is compatible.
  • Do not assume that another UFC762 variant is electrically interchangeable.

4. Power-On Self-Test (POST) — Validate the host system

  • Restore auxiliary power according to the host ABB equipment procedure.
  • Observe available power, status, and diagnostic indications.
  • Confirm the host controller recognizes the board.
  • Check for persistent hardware, rack, or communication alarms.
  • Verify all signals associated with the CVMI interface.
  • Apply controlled reference or simulation signals where the system documentation permits.
  • Compare measured values against the pre-failure baseline.
  • Confirm related control and protection functions before returning the equipment to normal operation.

ABB’s public product record identifies the exact assembly as a coated CVMI board, but it does not publish a universal mechanical extraction procedure or LED POST sequence. The host-system service documentation must therefore govern the actual removal and commissioning procedure.

Module 5: Quality Assurance & Testing SOP

For UFC762AE101, QA should prioritize exact board identity, physical condition, connector integrity, and application-specific functional verification. A successful power-up by itself is not sufficient acceptance evidence.

1. OEM identity verification

  • Verify ABB
  • Verify
  • Verify 3BHE006412R0101
  • Verify UF C762 AE101: CVMI
  • Compare PCB markings, revision codes, connectors, and board layout
  • Perform OEM anti-counterfeit visual inspection
  • Photograph all identification markings

2. Physical inspection

  • Inspect PCB surfaces for corrosion, contamination, cracks, and damaged components
  • Check connector housings and contacts
  • Inspect card-edge contacts for oxidation or mechanical damage
  • Check retaining hardware and extraction points
  • Inspect for thermal discoloration
  • Examine the coating for obvious scratches, delamination, or mechanical damage
  • Check for evidence of unauthorized component replacement

3. Electrical screening

  • Verify applicable supply paths using the board-specific test procedure
  • Check connector continuity where appropriate
  • Verify reference/ground continuity where applicable
  • Inspect power and signal pins for shorts or abnormal resistance
  • Test only at voltages specified by the applicable ABB documentation
  • Do not apply arbitrary hipot voltages to populated CVMI electronics

4. Functional testing

  • Install the board in a compatible ABB test environment where available
  • Perform power-on self-test
  • Confirm board recognition
  • Verify applicable measurement and signal interfaces
  • Apply calibrated test signals to supported inputs
  • Confirm corresponding output or processed values
  • Check signal scaling and polarity where applicable
  • Verify configured status and alarm functions
  • Perform I/O full-range simulation where the actual application exposes these channels
  • Verify communication or backplane behavior where applicable
  • Record hardware revision, applied signals, measured values, diagnostic status, and final result

5. Final QC release

  • Independent QC sign-off
  • ESD-safe packaging
  • Connector protection
  • Mechanical protection for front-panel and PCB edges
  • Final identification cross-check of
  • Retain inspection photographs
  • Retain functional-test records
  • Release only after the application-specific test criteria pass

ABB’s product documentation establishes 3BHE006412R0101 as a CVMI-BOARD, COATED item. Because public secondary listings give inconsistent technical descriptions, application-specific testing is preferable to relying on generic published voltage, protocol, or channel specifications.

Module 6: Maintenance & Reliability FAQ

Q1. Is ABB 3BHE006412R0101 a direct drop-in replacement, or does it require a firmware flash?
Do not assume an unconditional drop-in replacement. Match , 3BHE006412R0101, hardware revision, rack position, connector arrangement, and host-system compatibility. The exact firmware requirement depends on the equipment in which the CVMI board is installed; the ABB product record itself identifies the hardware as a coated CVMI board rather than specifying a universal firmware version.

Q2. Is it safe to hot-swap the while the system is running?
Do not assume hot-swap capability. The board is an electronic CVMI assembly used within ABB industrial equipment. Unless the exact host-system service documentation explicitly permits energized withdrawal, isolate the equipment before removing the card.

Q3. Will replacing the cause my current program or configuration to be lost?
The CVMI board should not be assumed to contain the complete application program. The critical risk is losing or changing board-specific configuration, signal scaling, addressing, or interface assignments. Back up the host configuration and document the original board settings before removal.

Q4. What should I verify before ordering this ABB board?
Verify the complete identification, the UF C762 AE101: CVMI designation, PCB revision, connector arrangement, rack position, and host-system application. Do not rely on generic online descriptions that classify the same part as a servo controller or unrelated control board.

Q5. How should the replacement be tested before returning the system to production?
Install it in an approved compatible test environment, verify board recognition and diagnostics, then validate every application-relevant signal path. Use calibrated simulation for supported inputs, verify scaling and polarity, test associated outputs and alarms, and compare the results against the original configuration. For a legacy CVMI board, that functional evidence is more valuable than a simple successful power-up.

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