Schneider Electric Altivar ATV Drive Control Board PN072130P905

Technical Dossier

Product Details And Specifications

Schneider Electric Altivar (ATV) Series: Comprehensive Module Range and Technical Overview

The Schneider Electric Altivar (ATV) series of variable frequency drives (VFDs) represents one of the most widely deployed drive platforms in global heavy industry. Installed across petrochemical refineries, nuclear power auxiliary systems, offshore platforms, pulp and paper mills, and large-scale water treatment facilities, the Altivar platform spans from fractional-kilowatt fan and pump drives to multi-megawatt process drives. The control board assembly — of which PN072130P905 is a documented spare part — is the central processing and gate-drive coordination unit within the ATV drive chassis. Failure of this board results in complete drive shutdown, making rapid sourcing of verified replacement units critical to plant uptime.

The Evolution of Altivar Architecture

Schneider Electric's Altivar drive architecture has evolved through several distinct generations since the early 1990s. The ATV11 and ATV16 represented the first generation of compact, single-phase and three-phase drives targeting HVAC and light industrial applications. These used discrete analog control circuitry with limited fieldbus capability. The ATV18 and ATV28 introduced modular control board designs, separating the power stage from the logic board — a topology that persists through modern variants and defines the replaceability of components such as PN072130P905.

The ATV31, ATV312, and ATV32 generation introduced integrated EMC filters, CANopen and Modbus RTU as standard communication options, and expanded the I/O complement on the control board. The ATV61 and ATV71 series marked the transition to high-power process drives with Ethernet/IP, Profibus DP, and DeviceNet support, along with dedicated control card slots. The current generation — ATV320, ATV340, ATV630, ATV650, ATV660, ATV680, and ATV930 — uses a unified SoMachine/EcoStruxure architecture with embedded safety functions (STO, SS1) and IIoT-ready communication stacks. Backward compatibility between generations is limited; control boards are generation-specific and in most cases drive-size-specific, requiring exact part number matching for replacement.

Altivar ATV Full Catalog & Functionalities (SKU List)

The following verified Schneider Electric Altivar drive control board and associated spare part SKUs are documented for maintenance and replacement reference. Each entry reflects a distinct functional role within the drive architecture.

PN072130P905: Altivar series variable frequency drive main control board assembly, gate-drive logic and regulation circuitry.
VW3A3310: Altivar ATV61/ATV71 Modbus/CANopen communication card, DIN-rail mountable option slot module.
VW3A3316: Altivar ATV61/ATV71 Profibus DP V1 communication card, 12 Mbit/s max, option slot.
VW3A3318: Altivar ATV61/ATV71 DeviceNet communication card, group 2 slave, option slot.
VW3A3320: Altivar ATV61/ATV71 Ethernet/IP + Modbus TCP communication card, dual-port RJ45.
VW3A3608: Altivar ATV630/ATV650 embedded Ethernet/IP communication module, IIoT-ready.
VW3A3720: Altivar ATV320 Ethernet/IP + Modbus TCP fieldbus module, snap-in option card.
VW3A3721: Altivar ATV320 Profibus DP communication module, option card format.
VW3A3722: Altivar ATV320 CANopen communication module, option card format.
GV3P40: Altivar-compatible manual motor starter/protector, 25–40A, used in ATV panel assemblies.
LXM32MD18N4: Lexium 32 servo drive control board (Schneider motion platform, cross-compatible maintenance reference).
ATV312H075N4: Altivar 312 0.75 kW 400V three-phase drive, compact chassis, Modbus RTU standard.
ATV320U07N4B: Altivar 320 0.75 kW 400V book-format drive, STO safety function, CANopen ready.
ATV630D11N4: Altivar 630 11 kW 400V process drive, Ethernet embedded, removable control card.
ATV71HD15N4383: Altivar 71 15 kW 400V high-performance drive with braking transistor, Profibus option.
ATV61HD22N4: Altivar 61 22 kW 400V process drive, pump/fan optimized, multi-fieldbus option slots.
VW3A58101: Altivar ATV58 control board replacement assembly, legacy series spare part.
VW3A66101: Altivar ATV66 control board replacement assembly, legacy series spare part.

Sourcing Hard-to-Find & Obsolete Altivar ATV Parts

Multiple Altivar generations — including the ATV11, ATV16, ATV18, ATV28, ATV38, ATV58, ATV66, and ATV68 — have reached end-of-life (EOL) status with Schneider Electric. Official spare parts support for these series has been discontinued or severely restricted. Control boards such as PN072130P905, which may correspond to legacy or transitional drive platforms, are no longer available through standard distribution channels.

DriveKNMS maintains a dedicated inventory of verified Altivar spare parts sourced from decommissioned plant equipment, authorized surplus channels, and controlled storage facilities. All legacy control boards are stored in anti-static, climate-controlled conditions to prevent electrostatic discharge damage and capacitor degradation. For plants operating legacy Altivar drives beyond their published EOL date, DriveKNMS provides lifecycle extension support including board-level repair assessment, functional testing, and cross-reference to compatible replacement assemblies where direct substitution is not possible.

Quality Control for the Altivar ATV Range

Altivar drive control boards present specific test challenges due to their integration of gate-drive signal generation, analog regulation loops, and digital fieldbus interfaces on a single PCB. DriveKNMS applies the following verification protocol to all Altivar control board units, including PN072130P905:

Visual inspection: 10x magnification examination of all solder joints, capacitor bodies, IGBT driver ICs, and connector pins for corrosion, thermal stress, or mechanical damage. Power-on functional test: Boards are energized on a dedicated ATV drive test bench at rated voltage. Regulation output signals, PWM gate-drive waveforms, and analog I/O response are verified against OEM reference parameters. Communication interface test: Where applicable, Modbus RTU, CANopen, and Profibus DP interfaces are exercised using protocol analyzers to confirm correct framing, node addressing, and error response behavior. Thermal cycling: Units are subjected to a minimum of two thermal cycles (0°C to 55°C) to identify latent solder joint failures not visible under static conditions. Final documentation: Each unit ships with a test record including bench configuration, measured parameters, and pass/fail criteria against Schneider Electric published specifications.