Yaskawa MA1400 SGMPH-01ANA-YR13 JANCD-YSF21-E DX200 JARCR-XOI01 Extended I/O Board – Obsolete Motoman Spare Part

Technical Dossier

Product Details And Specifications

Yaskawa MA1400 SGMPH-01ANA-YR13 JANCD-YSF21-E DX200 JARCR-XOI01 Extended I/O Board – Obsolete Motoman Spare Part

RFQ support for obsolete parts: Send the model number, required quantity and destination so DriveKNMS can confirm sourcing options before quotation.

Technical Specifications

Solving the Discontinued Hardware Crisis

The Yaskawa DX200 controller was the backbone of thousands of arc welding and material handling installations worldwide throughout the 2010s. The MA1400 — a 6-axis arc welding robot with a 1.4 kg payload and 1,434 mm reach — was one of the most widely deployed welding robots of its generation, found in automotive body shops, pressure vessel fabrication lines, and structural steel facilities across Asia, Europe, and North America.

Yaskawa's transition to the YRC1000 platform introduced a fundamentally different hardware and software architecture. The JANCD-YSF21-E safety board and JARCR-XOI01 extended I/O board are not forward-compatible with YRC1000. This means that when either board fails, the only path to restoring the original DX200 cell — without a full controller replacement — is sourcing the exact legacy part.

A full controller migration from DX200 to YRC1000 for a single MA1400 cell typically involves hardware procurement, re-teaching of all weld programs, recertification of safety zones, and engineering labor. For multi-robot welding lines, this cost compounds rapidly. Facilities that have invested in DX200-based infrastructure have a clear financial incentive to maintain that infrastructure through targeted spare part procurement rather than premature system retirement.

Condition & Reliability Assurance

Obsolete industrial boards sourced from the secondary market carry inherent risk if not properly evaluated. DriveKNMS applies a 5-step inspection protocol to all DX200 legacy boards before dispatch review:

• Step 1 – Visual Inspection: Full board surface examination for physical damage, burn marks, and solder joint integrity.
• Step 2 – Electrolytic Capacitor Assessment: Identification and evaluation of aging electrolytic capacitors, which are the primary failure point in boards of this generation. Boards with visibly degraded capacitors are flagged and recapped before release.
• Step 3 – Firmware Version Verification: Confirmation that the firmware revision on JANCD-YSF21-E matches the DX200 system software version in use at the customer's facility. Mismatched firmware versions are a known cause of post-installation faults.
• Step 4 – Pin and Connector Inspection: All edge connectors and board-to-board connectors are inspected for oxidation, corrosion, and mechanical deformation. Affected contacts are cleaned and treated.
• Step 5 – Functional Test (where test fixtures are available): Boards are powered and tested against known-good reference signals prior to packaging.

Key Features for System Maintenance

Q: How are RFQ terms confirmed?
A: Quantity, required condition, documentation needs, destination and sourcing route are confirmed during RFQ review before quotation.

Q: How do I confirm the board is new or quality-refurbished?
A: Each shipment includes a condition classification label (NOS or TR) and an inspection checklist. Photographs of the board prior to packaging are available on request. We do not sell boards classified as "for parts" or "untested" under standard product listings.

Q: Can these boards be used in other DX200-controlled robots?
A: The JARCR-XOI01 extended I/O board is common across the DX200 platform and is compatible with other Motoman models using the DX200 controller. Compatibility of the JANCD-YSF21-E should be confirmed against your specific DX200 software version before installation.