KUKA 00-122-286 KSD1-32 00-111-230 CP1616 00-146-124 Robot Controller Module – Obsolete KRC Spare Part

Model: 00-122-286 KSD1-32 00-111-230 profinet CP1616 00-146-124

Brand Kuka
Model 00-122-286 KSD1-32 00-111-230 profinet CP1616 00-146-124
RFQ-ready model route Obsolete and surplus sourcing Export follow-up by model list

Product Overview

Commercial availability is handled through direct RFQ, model verification and export-oriented follow-up rather than public cart checkout.

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Commercial Path

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Technical Dossier

Product Details And Specifications

KUKA 00-122-286 KSD1-32 00-111-230 CP1616 00-146-124 Robot Controller Module – Obsolete KRC 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 not independently verified. Specifications above are based on published KUKA documentation for the KRC2/KRC3 platform. No parameters have been assumed or fabricated.

Solving the Discontinued Hardware Crisis

The KUKA KRC2 and KRC3 controller platforms were deployed extensively in automotive body-in-white, foundry, and general assembly applications from the late 1990s through the mid-2010s. Many of these installations remain in active production. The KSD1-32 servo drive module and the CP1616 PROFINET communication card are load-bearing components within these controllers — their failure does not produce a degraded operating mode. It produces a hard stop.

KUKA's official end-of-life policy for KRC2 hardware means that replacement modules are no longer manufactured. The CP1616 PROFINET card, originally developed by Siemens and integrated into KUKA's controller architecture, has similarly reached end-of-production status in the configurations used by KRC-series hardware. Sourcing a verified replacement from the secondary market is the only path to restoring production without capital expenditure on new robot cells.

For plant managers operating mixed fleets of KRC2 and newer KRC4/KRC5 robots, the economic argument for maintaining a strategic spare inventory is straightforward: the cost of one unplanned shutdown event — including lost production, emergency logistics, and expedited labor — typically exceeds the cost of a full spare module by a factor of 10 to 30. Facilities that maintain a minimum two-unit buffer for critical controller components consistently report mean time to recovery (MTTR) measured in hours rather than weeks.

How to extend your KUKA KRC2/KRC3 system life by 5–10 years:

Condition & Reliability Assurance

All KUKA controller modules supplied by DriveKNMS pass a structured 5-step quality process before dispatch review:

  1. Visual and mechanical inspection: Boards are examined for physical damage, pin corrosion, solder joint integrity, and connector wear. Units with compromised connectors are rejected at this stage.
  2. Electrolytic capacitor assessment: Capacitor aging is the primary failure mode in KRC2-era hardware. Each unit is assessed for capacitor condition; units showing measurable ESR degradation are either recapped or rejected.
  3. Firmware version verification: Where applicable, firmware versions are documented and cross-referenced against known-compatible KRC2/KRC3 software revisions.
  4. Functional bench test: Modules are powered and tested for basic operational response prior to packaging.
  5. Protective packaging: Units are shipped in ESD-safe packaging with desiccant to prevent moisture ingress during transit.

Key Features for System Maintenance

  • Drop-in replacement: The KSD1-32 and CP1616 modules are designed for direct substitution within the KRC2/KRC3 controller chassis. No mechanical modification is required.
  • No reprogramming required: Robot programs, tool data, and system parameters reside on the KRC controller PC, not on the servo or communication module. A hardware swap does not require robot re-teaching or program reconstruction.
  • Avoids engineering re-integration costs: Replacing a module within the existing controller architecture eliminates the need for safety re-validation, PLC interface re-mapping, and process re-qualification that a new robot cell would require.
  • Maintains existing safety certification: Facilities operating under ISO 10218 or customer-specific safety standards can maintain their existing risk assessment documentation when replacing like-for-like hardware.

Q: How is condition confirmed before quotation?
A: Available condition, photos, test records and documentation are checked according to the requested model and sourcing channel before a formal RFQ response.

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

Q: Can you support multi-unit or repeat RFQ requests?
A: Yes. Send the model list, target quantity and destination so DRIVEKNMS can review sourcing options and quote the requirement as a project RFQ.

Can you source other KUKA KRC2/KRC3 components?
Yes. DriveKNMS specializes in hard-to-find and obsolete industrial automation components across KUKA, Siemens, ABB, Fanuc, and other major platforms. Contact us with your full part number list.

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