KUKA 00-200-588 MG_35_84_25 Teach Pendant – Obsolete KR C1/C2 Spare Part

Technical Dossier

Product Details And Specifications

KUKA 00-200-588 MG_35_84_25 Teach Pendant – Obsolete KR C1/C2 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

Note: Electrical parameters specific to individual unit revisions are not published here to avoid misapplication. Confirm compatibility with your controller serial number before ordering.

Solving the Discontinued Hardware Crisis

The KUKA KR C1 and KR C2 controller platforms were deployed extensively throughout the 1990s and early 2000s in automotive body shops, foundries, and general manufacturing. Tens of thousands of these robot cells remain in active service globally. KUKA's official support for KR C1 hardware ended years ago, and the KR C2 platform is in its final support phase. The teach pendant — part number 00-200-588 — is the primary human-machine interface for these controllers. It handles all manual jogging, program loading, override control, and fault acknowledgment. There is no workaround if this unit fails. A damaged or non-functional teach pendant renders the robot inoperable for any task requiring manual intervention or program modification.

Extending Automation Asset Life 5–10 Years: A Practical Strategy

The decision to retire a robot controller is rarely driven by the robot's mechanical condition. Articulated robot arms — KUKA, Fanuc, ABB — routinely operate for 20–30 years with proper maintenance. What forces retirement is the unavailability of control-side components: teach pendants, servo drives, I/O modules, and communication cards. A structured spare parts strategy directly addresses this constraint.

Recommended approach for KR C1/C2 asset protection:

• Identify the three highest-failure-risk components in your controller cabinet. For KR C1/C2 systems, the teach pendant, the KPS power supply module, and the DSE/RDW communication board are historically the most common failure points.
• Hold a minimum of one verified spare for each critical component. For a multi-robot facility, two spares per model is a defensible position.
• Establish a rotation schedule. Spare parts held in storage degrade. Electrolytic capacitors in power supplies have a shelf life. A rotation policy — where stored spares are periodically swapped into service and tested — keeps your inventory in known-good condition.
• Document firmware versions. KR C1 and KR C2 systems are sensitive to firmware mismatches between the teach pendant and the controller. Before storing a spare, record the firmware version and confirm compatibility with your installed controller revision.
• Negotiate a long-term supply agreement with a specialist distributor. Spot-buying obsolete parts at the moment of failure is the most expensive and least reliable procurement strategy. Pre-positioning inventory, even in small quantities, eliminates emergency freight costs and sourcing delays.

Facilities that implement this approach consistently report 5–10 additional years of productive service from controller platforms that would otherwise have been retired on a timeline driven by parts availability rather than mechanical condition.

Condition & Reliability Assurance

Obsolete parts sourced from secondary markets carry inherent risk. DriveKNMS applies a structured 5-step qualification process to every unit before it is offered for sale.

1. Visual and mechanical inspection: Housing integrity, keypad condition, cable and connector examination. Units with cracked housings, damaged emergency-stop buttons, or corroded connector pins are rejected at this stage.
2. Electrolytic capacitor assessment: Internal capacitors — particularly in the power regulation circuitry — are the primary age-related failure point in stored electronic assemblies. Each unit is assessed for capacitor condition. Units showing evidence of electrolyte leakage or bulging are not offered for sale.
3. Firmware version verification: The firmware version present on the unit is identified and documented. Compatibility with KR C1 and KR C2 controller revisions is confirmed prior to listing.
4. Pin and contact inspection: All connector pins are examined under magnification for oxidation, corrosion, and mechanical deformation. Affected contacts are cleaned or the unit is rejected.
5. Functional test (where test equipment is available): Units are powered and tested for display function, keypad response, and communication handshake with a compatible controller. Test results are documented and available on request.

Key Features for System Maintenance

• Drop-in replacement: The 00-200-588 is a direct hardware replacement for the original teach pendant in KR C1 and KR C2 installations. No controller-side hardware modification is required.
• No re-programming required: Robot programs reside in the controller, not the teach pendant. Replacing the pendant does not affect stored programs, coordinate systems, or I/O configurations.
• Avoids engineering re-integration costs: A controller-generation upgrade requires mechanical re-mounting, electrical re-wiring, software migration, and re-certification of all robot programs. A direct pendant replacement requires none of these steps.
• Immediate operational restoration: In a verified swap scenario, a replacement teach pendant can restore robot operability within the time required for physical installation — measured in minutes, not days.

Should I buy more than one unit?
For any facility operating more than one KR C1 or KR C2 robot, holding a minimum of two teach pendants is a defensible maintenance position. Inventory of the 00-200-588 is finite and will not be replenished by the manufacturer. current sourcing status does not predict future availability.

Can this pendant be used with KR C3 or KR C4 controllers?
No. The 00-200-588 is designed for KR C1 and KR C2 platforms. It is not compatible with KR C3 or KR C4 controller generations, which use a different pendant interface and communication protocol.