FANUC CRX-10iA/L Review: Price, Specs & Best Uses

FANUC CRX-10iA/L: Quick Buyer Verdict

The CRX-10iA/L should be evaluated as a complete automation platform, not simply as a 10 kg robot arm. The arm is the foundation; the result depends on the gripper or process tool, fixtures, safety design, controller options, machine interface, programming, support and the quality of the integration.

Pros

• Long 1,418 mm reach without moving into a very large cobot class.
• Full 10 kg wrist payload for a broad range of manufacturing tasks.
• IP67 protection on the standard robot body and wrist/J3 arm.
• Simple hand-guided teaching and drag-and-drop tablet programming.
• Integrated force sensing for basic push, centering and phase-matching functions.
• Floor, angled and inverted mounting options.
• Underflip motion helps the arm work around fixtures and in constrained layouts.
• Large approved device ecosystem and integrated FANUC iRVision options.
• Strong global service, training and spare-parts infrastructure.
• FANUC’s eight-year zero-maintenance claim can reduce planned service burden.

Cons

• The 10 kg rating includes the end effector, adapters, sensors, cables and the part being handled.
• The arm is not the lightest in its class at approximately 39–40 kg.
• High-speed operation may require additional guarding or separation measures and can remove the main space-saving advantage of a collaborative cell.
• A cobot does not make a sharp tool, hot welding process or heavy workpiece automatically safe.
• FANUC does not publish one universal package price, and integration can materially exceed the arm price.
• Official FANUC pages currently disagree slightly on repeatability and mechanical weight.
• Advanced applications can still require an experienced FANUC integrator, conventional robot knowledge and paid software options.
• Buyers needing 12.5 kg or more may find a better payload-to-weight ratio elsewhere.

Our recommendation: shortlist the CRX-10iA/L when you need approximately 1.4 m of reach, a real 10 kg payload, IP67 protection and a low-friction path into industrial automation. Prove the full application—tool, part, fixture, safety mode and cycle time—before ordering. View the FANUC CRX-10iA/L listing, price reference and availability before requesting a configuration-specific quote.

How Much Does the FANUC CRX-10iA/L Cost in 2026?

FANUC does not publish one universal global list price for the CRX-10iA/L; its official sales pages direct buyers to request a quote. Anton Robots currently lists US$56,900 as a marketplace price reference for the model. Treat that figure as an indicative starting point rather than the guaranteed cost of a complete production-ready cell.

The final price depends on region, controller package, safety options, software, warranty, training, end-of-arm tooling, mounting, cables, vision, force sensing, process equipment and integration. A bare robot quotation and a fully commissioned machine-tending or welding cell are not comparable purchases.

How to compare quotations properly

Ask every supplier to separate:

1. Robot-only price: arm, controller, pendant, standard cables and mandatory licences.
2. Minimum viable cell price: everything required to produce one accepted part safely.
3. Production-ready price: guarding or scanners, fixtures, machine interface, documentation, training and site acceptance.
4. Lifecycle price: support, software, spares and expected operating costs over at least three years.

A cheaper arm can produce a more expensive project if it needs more engineering, custom drivers, environmental protection or local support. Conversely, a premium robot can be poor value if its advantages are irrelevant to the process. For the current marketplace reference and supplier enquiry route, see FANUC CRX-10iA/L at Anton Robots.

What Is the FANUC CRX-10iA/L?

The FANUC CRX-10iA/L is a six-axis collaborative robot arm designed for industrial applications that benefit from human-accessible automation, intuitive teaching and a compact installation. It carries up to 10 kg at the wrist and reaches 1,418 mm, giving it more working range than the standard 1,249 mm CRX-10iA.

The “L” identifies the long-arm version. The extra reach is not a cosmetic difference: it can determine whether the robot reaches into a CNC machine, covers two fixtures, accesses a wide welding table or works around an obstruction without an external linear axis.

What the CRX-10iA/L is

• A general-purpose industrial cobot for handling and process applications.
• A long-reach member of FANUC’s CRX collaborative robot family.
• A robot that can be taught by physically guiding the arm or by programming on a tablet interface.
• A platform that supports FANUC vision, force functions, process software and third-party devices.
• A potential alternative to a fenced industrial robot when the required risk reduction and production target can be achieved collaboratively.

What it is not

• It is not a complete automation cell by itself.
• It is not automatically safe simply because it is labelled collaborative.
• It is not a 10 kg part-handling robot after a heavy gripper, adapter and camera have already consumed most of the payload.
• It is not the fastest option for every high-volume process.
• It is not the explosion-protected CRX-10iA/L Paint model.
• It is not designed to replace application engineering, fixturing or operator training.

For a broader explanation of the category, compare the cobots available on Anton Robots and the wider selection of robotic arms.

FANUC CRX-10iA/L Specifications

The following table combines current public FANUC America product information with the current FANUC Europe technical datasheet. Buyers should request the final specification sheet linked to the serialised robot and controller package in the quotation.

Joint motion and speed

Important official-document discrepancies

FANUC’s current public sources do not agree on every figure. The main FANUC America product page lists a 39 kg arm, ±0.05 mm repeatability and a 380° J6 range. The FANUC Europe datasheet and FANUC CRX microsite list 40 kg, ±0.04 mm and, in the Europe datasheet, a 450° J6 range. Power supply information also varies by region: FANUC’s U.S. CRX marketing emphasises standard 120 V power, while the Europe datasheet lists 200–240 V single-phase input.

These differences may reflect regional packages, rounding, documentation updates or hardware revisions. They are small enough not to change the overall buyer verdict, but large enough to matter in a detailed cell design. Require the quotation to state the exact mass, repeatability, joint range, controller, mains supply and software revision being supplied.

Reach, Payload and Working Envelope

The CRX-10iA/L’s defining specification is the relationship between its 10 kg payload and 1,418 mm reach. Many cobots in this payload class sit closer to 1,200–1,300 mm. The extra reach can reduce the need for a pedestal, linear track or second robot, but only when the application remains inside a comfortable part of the workspace.

Why the 1,418 mm reach matters

• Reaching deeper into CNC machines and presses.
• Serving two fixtures or work areas from one base position.
• Covering longer weld seams or dispensing paths.
• Inspecting larger components without repositioning the part.
• Mounting above or behind a machine while keeping the floor clear.
• Using underflip motion to access work from a different arm configuration.

The 10 kg payload is not the part weight

The payload calculation must include:

• The gripper, torch, spindle, dispenser or sensor.
• Mounting plates, quick changers and compliance devices.
• Camera, lighting and wrist accessories.
• Cables, hoses and dress packs that move with the arm.
• The heaviest part, including manufacturing variation.

A 3 kg gripper and 1 kg adapter leave 6 kg before considering cables, centre of gravity and dynamic loads. A buyer who says “our part weighs 9 kg, so a 10 kg robot is enough” is likely starting with too little margin.

Centre of gravity and wrist moment matter

Payload is only one constraint. Long tools and offset parts create wrist moments and inertia that can exceed the allowable envelope before the nominal 10 kg limit is reached. FANUC publishes allowable moment/inertia figures for J4, J5 and J6. The integrator should validate the full tool model rather than relying on mass alone.

Underflip motion: useful, but not magic

FANUC promotes the CRX-10iA/L’s underflip motion as a way to perform dynamic movements in relatively confined spaces. In practice, it gives the programmer more freedom to route the elbow and wrist around fixtures. It does not remove singularities, collision risks or the need to model the actual cell. Use ROBOGUIDE or an equivalent reach study with the real tool and machine geometry before fixing the base location.

Programming and Setup

Programming is one of the CRX series’ strongest selling points. FANUC’s Tablet Teach Pendant uses graphical icons that can be dragged onto a program timeline. Users can teach points by moving the robot manually, then add logic, I/O and application actions through the interface.

Hand guidance

An operator can physically guide the arm to a position and record it. This is particularly useful for:

• Teaching weld start and end points.
• Creating dispensing or sanding paths.
• Setting machine load and unload positions.
• Adjusting a high-mix process without writing coordinates manually.
• Helping production staff understand the robot’s intended movement.

Hand guidance makes teaching easier; it does not guarantee a production-quality path. Weld angle, tool orientation, approach distance, blending, speed, fixture tolerance and collision clearance still require process knowledge.

Tablet Teach Pendant

The tablet interface is a genuine advantage for new users. FANUC describes a workflow in which programming instructions are dragged and dropped onto a timeline, points are taught and simple logic is created without conventional code. The interface also includes guided setup and tutorials.

For basic pick-and-place, machine tending or simple welding, this can shorten the first deployment. More complex cells still benefit from experienced robot programmers who understand frames, payload identification, tool centre points, recovery logic, communication and safe-state design.

Wrist buttons and direct teaching

Current FANUC CRX material describes wrist-button functionality across the CRX series starting from the CRX-10iA. The exact button arrangement and supplied functionality should be confirmed for the CRX-10iA/L package in your region. Where included, arm-side controls can make point teaching more convenient by reducing the need to hold the tablet while positioning the robot.

Free training helps, but does not replace commissioning

FANUC offers CRX e-learning modules covering setup, programming, 2D and 3D vision and force-control functions. This is valuable for internal capability building. It should be combined with application-specific training, safe recovery procedures and documentation for the exact cell.

Collaborative Safety: Can the CRX-10iA/L Work Without Fencing?

Potentially—but not automatically. The CRX-10iA/L includes collaborative safety capabilities, sensitive contact detection and functions such as push-to-escape and retract after contact. FANUC documentation states that the CRX series is certified to relevant robot safety standards. The complete application, however, must be risk-assessed as a system.

The robot arm can be safe enough for close human operation while the application remains unsafe because of:

• A sharp gripper or workpiece.
• A hot welding torch, arc flash, fumes or spatter.
• A rotating spindle, sanding disc or cutting tool.
• A heavy part that could crush a hand.
• A pinch point between the arm and a fixed machine.
• A pneumatic gripper that retains hazardous stored energy.
• A machine tool that is not safely interlocked.

Collaborative mode and high-speed mode are different design choices

FANUC publishes up to 1,000 mm/s in collaborative mode and up to 2,000 mm/s in high-speed mode. High-speed operation may require guarding, safety scanners or other protective measures depending on the risk assessment. The correct question is not “Can the robot go faster?” It is “What is the fastest safe cycle for this tool, part, layout and human interaction?”

Risk assessment should cover the entire operating lifecycle

Review:

• Automatic production.
• Part loading and unloading.
• Teaching and changeover.
• Tool replacement and consumable changes.
• Fault recovery and jam clearing.
• Cleaning and maintenance.
• Unexpected restart and loss of power or communication.

IP67 does not mean every application is suitable for water

The robot body and wrist/J3 arm are listed as IP67, but the controller, tablet, connectors, tool, cables and complete cell may have lower ratings. IP67 also does not mean the robot is approved for outdoor use, washdown with every chemical or operation while submerged. Confirm the installation manual and every component rating.

Painting and explosive atmospheres

The standard CRX-10iA/L should not be treated as explosion-protected. FANUC offers a separate CRX-10iA/L Paint model designed for painting and coating applications and positioned for global explosion-proof certifications. Buyers must use the exact certified model and complete approved configuration required by the site classification.

Speed, Repeatability and Real Cycle Performance

The CRX-10iA/L is precise enough for a wide range of industrial processes, but its production performance depends more on the application than on a headline specification.

Repeatability

FANUC’s public documentation currently gives ±0.04 mm or ±0.05 mm repeatability. Repeatability describes the robot’s ability to return to the same pose under defined test conditions. It does not guarantee absolute accuracy to a CAD coordinate, nor does it include fixture variation, camera error, tool deflection, thermal effects or part tolerance.

For machine tending, welding, dispensing and many assembly tasks, this repeatability is strong. For metrology or very tight insertion, the cell may require calibration, vision, force sensing, a more accurate fixture or a dedicated measurement system.

Maximum speed is not average cycle speed

Published speed does not include:

• Acceleration and deceleration.
• Short moves that never reach maximum speed.
• Gripper open/close time.
• Machine door and chuck signals.
• Camera exposure and vision processing.
• Weld, dispense, screwdriving or inspection process time.
• Safety speed reductions near people.

A cycle study should model the complete sequence and then validate it on the final cell. Optimising ten seconds of robot motion is irrelevant if the machine process takes five minutes; in that case, reliability and the ability to serve another task may matter more.

Where the CRX-10iA/L can outperform a smaller cobot

The long arm may reduce repositioning and allow one base to reach more stations. That can lower fixture complexity and improve utilisation. However, a longer arm also increases sensitivity to tool inertia and layout errors. The best base position is rarely the one that uses the final few millimetres of reach.

Force Sensing and Contact Tasks

The CRX series includes integrated force-sensing capabilities that can detect applied force without an external wrist sensor for supported basic functions. FANUC training material shows push, phase-matching and centering workflows using the robot’s integrated sensing.

Useful built-in force functions

• Force push: apply controlled pressure against a surface.
• Phase matching: align and insert components such as gears.
• Centering: compensate for small position differences when loading a chuck or fixture.
• Force compliance: allow controlled movement in response to contact forces.

These features can simplify light pressing, insertion, alignment and contact-based handling. They are also useful for improving robustness when the part position varies slightly.

When an external force sensor still makes sense

FANUC offers external six-axis force sensors for applications requiring higher sensitivity or more advanced force and torque control. Consider one for:

• Precision assembly with tight insertion forces.
• Contour following.
• Polishing or sanding where surface force strongly affects finish.
• Measurement or inspection based on force.
• Processes that need calibrated six-axis force/torque data.

Do not assume that “integrated force sensing” means every precision contact process will work without additional hardware. Validate the required force resolution, response, stiffness and surface result on the real part.

End-of-Arm Tooling, Vision and Accessories

The CRX-10iA/L’s value depends on the device attached to it. FANUC maintains a catalogue of approved CRX devices covering grippers, tools, sensors, pedestals, carts, software plugins and complete solutions.

Common end effectors

• Electric parallel grippers for machine tending and assembly.
• Pneumatic grippers for fast, simple part handling.
• Vacuum grippers for boxes, sheets and packaged goods.
• Welding torches and seam-tracking equipment.
• Screwdrivers and torque-controlled fastening tools.
• Dispensing valves for adhesive, sealant and coating.
• Sanding, polishing, grinding and deburring tools.
• Laser scanners, cameras and non-contact inspection gauges.
• Automatic tool changers for multi-process cells.

CRX plugins reduce integration work

Approved devices may include a CRX plugin that exposes tool controls inside the FANUC tablet interface. This can reduce custom I/O programming and make changeover easier. Buyers should still confirm software-version compatibility, supported controller options, safety behaviour and who provides technical support when the robot and tool vendors differ.

FANUC iRVision

FANUC’s iRVision platform provides integrated 2D and 3D vision for locating, guiding and inspecting parts. The CRX supports fixed and robot-mounted cameras, and FANUC describes a rotating wrist camera port intended to simplify cable management.

Vision is valuable when:

• Parts arrive in variable positions.
• Precise fixtures are expensive or slow to change.
• The robot must identify multiple products.
• Inspection needs to happen inside the same cell.
• A 3D sensor is required for bin picking or surface location.

Vision is not a substitute for good process design. Lighting, contrast, occlusion, reflective materials, camera calibration and part variation determine whether the result is reliable.

Choose the lightest tool that reliably completes the task

Every additional kilogram reduces available part payload and increases inertia. A compact gripper with purpose-designed fingers can be more valuable than a flexible but oversized tool. Tool selection should start from the part geometry, required grip force, failure mode and changeover plan—not from the longest accessory list.

Controller, Software and Integration

The CRX-10iA/L is paired with FANUC’s R-30iB Plus controller family, commonly the compact Mini Plus configuration. The controller gives the cobot access to FANUC’s broader industrial software and communication ecosystem rather than limiting it to basic collaborative functions.

R-30iB Plus controller

The controller supports robot motion, safety, I/O, process options and communication with external equipment. Depending on the package, integration can include:

• Digital and safety I/O.
• Industrial fieldbus interfaces.
• Machine tool and PLC communication.
• Socket messaging and custom data exchange.
• Vision, force and process software.
• Remote monitoring and production data.

Exact protocols and licences are configuration-dependent. Ask the integrator to list every required option code before purchase.

ROBOGUIDE

FANUC’s ROBOGUIDE V10 software supports offline programming and 3D simulation. It can be used to:

• Validate reach and collisions.
• Compare base and fixture positions.
• Estimate cycle time.
• Develop programs before the physical cell is complete.
• Simulate application-specific workflows through packages such as HandlingPRO, WeldPRO or PalletPRO.

Offline simulation is especially valuable for the CRX-10iA/L because its long reach may create several possible arm configurations around a machine. It reduces commissioning risk, but the final cell still needs real-world calibration and testing.

Machine integration is often the real project

For machine tending, the robot is only one component. The cell must safely control doors, chucks, cycle start, part presence, fault states and machine-ready signals. A robust program should define what happens when:

• The part is missing or misaligned.
• The gripper does not confirm a secure hold.
• The machine does not open or release the part.
• The robot is stopped mid-cycle.
• An operator removes a part unexpectedly.
• Communication is lost.

A demo that completes ten ideal cycles is not production validation. Require recovery tests and abnormal-condition handling during acceptance.

Reliability, Maintenance and Support

FANUC’s most distinctive ownership claim is that the CRX series can operate for eight years with zero maintenance on motors, reducers, cables, sensors and grease. FANUC says this proposition is backed by accelerated life testing.

What “eight years zero maintenance” should mean in procurement

The claim does not mean the complete cell needs no attention. Buyers should separate:

• Robot-arm scheduled maintenance: the components covered by FANUC’s CRX claim.
• Daily checks: damage, loose fixtures, tool condition, cable wear and abnormal noise.
• End-effector maintenance: gripper fingers, seals, bearings, vacuum cups, torch consumables or sanding tools.
• Cell maintenance: scanners, guards, fixtures, conveyors, fume extraction and machine interfaces.
• Software and backups: programs, controller image, tool data, frames and configuration records.

Ask for the exact warranty, exclusions, operating conditions and inspection requirements attached to the quoted robot. “Zero maintenance” is a maintenance interval claim, not an unlimited warranty against misuse, collision or tool failure.

FANUC service network

FANUC America states that it supports products through 289 service locations across 108 countries and offers lifetime product support. Regional coverage, response time, spare-parts availability and hotline access should be verified for the buyer’s site.

The strength of this network matters when a robot becomes part of production infrastructure. A small difference in arm price can be outweighed by one prolonged outage or the absence of a trained local integrator.

Internal capability still matters

Even with strong vendor support, the factory should have named owners for:

• Program backups.
• Basic fault recovery.
• Tool and fixture maintenance.
• Safety inspection.
• Changeover control.
• Escalation to the integrator or FANUC.

The easiest cobot to program can still become unused equipment if every minor change requires an external visit.

Real-World FANUC CRX-10iA/L Results

FANUC publishes several customer stories involving the CRX-10iA/L. These are manufacturer-hosted case studies, not independent controlled trials. They show what has been achieved with specific integrators, tooling and processes; they do not guarantee the same result in another factory.

What the strongest deployments have in common

They begin with a constrained process, use purpose-built tooling, integrate the robot into the surrounding workflow and define a measurable outcome. None succeeds because the company simply purchased a collaborative arm.

The common pattern is:

1. A repetitive or ergonomically difficult task.
2. A part and process the robot can handle consistently.
3. An integrator or internal team that understands the application.
4. A user interface and recovery method operators can manage.
5. A measurable reduction in time, rework, labour pressure or process variation.

Best FANUC CRX-10iA/L Use Cases

1. CNC machine tending

Best overall fit. The long reach helps the robot access deeper machine envelopes, drawers and part tables. A 10 kg payload can handle a useful range of grippers and machined parts. The key constraints are door/chuck integration, part presentation, coolant exposure, cycle time and recovery logic.

See more machine-tending robots and cobots.

2. Collaborative welding

The CRX-10iA/L is widely promoted for arc welding and has documented customer deployments. Hand guidance and tablet programming are useful for high-mix fabrication. The robot can improve consistency and free skilled welders from repetitive seams, but the cell still needs welding expertise, fixtures, fume extraction and protection from arc, heat and spatter.

Compare welding robots and cobot welding systems.

3. Dispensing and sealing

The reach and repeatability suit adhesive, sealant and controlled dispensing paths. A robot can improve bead consistency and reduce material waste. Success depends on fluid control, nozzle maintenance, path accuracy, part location and a cleaning strategy.

4. Assembly and insertion

Integrated force functions can support pressing, phase matching and centering. The CRX is particularly attractive when people still perform nearby tasks or when the product mix changes. Tight-tolerance assembly may require an external force sensor, vision or precision fixtures.

Explore assembly robots.

5. Inspection and metrology positioning

The robot can move cameras, laser scanners or non-contact gauges around a component. The long reach gives useful coverage, while repeatability supports consistent capture positions. Measurement accuracy comes from the sensor, calibration and system design—not from the robot’s repeatability alone.

6. Sanding, polishing and deburring

The CRX can automate ergonomically difficult finishing tasks using compliant tooling or force sensing. These processes need careful dust control, tool-wear compensation and surface-quality validation. The standard robot’s IP67 protection is useful, but it does not certify the complete tool or cell.

7. Pick-and-place and packaging

Ten kilograms of payload and a wide work envelope suit many packaging and transfer tasks. Collaborative operation may save floor space where people need access, but a traditional robot can be faster when high throughput and full guarding are acceptable.

8. Light palletizing

The CRX-10iA/L can palletize suitable boxes and products within its payload and height envelope, especially with a lifting column. Buyers handling heavier cases, tall pallets or high rates should compare the CRX-20iA/L, CRX-30iA or purpose-built palletizing cobots.

See palletizing robots and systems.

9. Mobile manipulation

FANUC now lists a CRX Cobot Integration Module that combines CRX arms with an autonomous mobile robot platform. This can allow one robot to serve several workstations. Mobile manipulation introduces additional safety, docking, localisation, battery, network and utilisation questions; it should not be treated as a plug-and-play extension of a fixed cell.

When the FANUC CRX-10iA/L Is Not the Right Robot

Reject or reconsider the CRX-10iA/L when the application points clearly elsewhere.

• Payload above 10 kg: move to the CRX-20iA/L, CRX-30iA, UR15, UR20 or another higher-payload platform.
• Very tall palletizing: use a lifting column or a robot designed around pallet height and case rate.
• High-speed, fenced production: a conventional industrial robot may deliver a faster cycle and lower cost per part.
• Frequent manual relocation: a lighter arm may be easier to move between stations, although every relocation still requires accurate and safe setup.
• Extremely tight absolute accuracy: use calibration, metrology feedback or a robot selected specifically for the required accuracy.
• Explosive painting environment: specify the dedicated CRX-10iA/L Paint configuration and verify the complete certification.
• Outdoor or submerged operation: IP67 alone does not make the standard robot suitable.
• Sharp, hot or high-energy process near people: collaborative operation may not be the right safety concept even if the robot supports it.
• No repeatable part presentation: improve fixtures or add vision before expecting reliable automation.
• No internal owner: delay the purchase until someone owns production, changeovers, backups and recovery.

FANUC CRX-10iA/L vs Universal Robots UR10e, ABB GoFa, KUKA LBR iisy and Doosan M1013

There is no universal best 10 kg cobot. The right choice depends on reach, usable payload after tooling, environmental rating, programming preference, process software, service coverage and the integrator’s experience.

CRX-10iA/L vs UR10e

Choose the CRX-10iA/L when long reach, IP67 protection, FANUC support and the maintenance proposition are more important than arm weight. Choose the UR10e when the extra 2.5 kg nominal payload, lighter arm and Universal Robots ecosystem fit the application better. Neither wins without including the tool, software and integrator.

CRX-10iA/L vs ABB GoFa

ABB’s current GoFa range can offer more reach, higher repeatability and higher speed on selected variants. The CRX counters with a very mature FANUC installed base, straightforward CRX programming, integrated FANUC options and the eight-year zero-maintenance message. Compare the exact GoFa model, not the family headline.

CRX-10iA/L vs KUKA LBR iisy

KUKA’s LBR iisy 11 R1300 offers slightly more payload and joint torque sensing, while the FANUC provides longer reach and IP67 protection in a lighter published arm. The best choice often follows the factory’s existing robot standard and local integrator capability.

Which one should you choose?

• Choose CRX-10iA/L for 1.4 m reach, IP67 protection, FANUC support and a low-maintenance industrial platform.
• Choose UR10e when 12.5 kg payload, lower arm weight and the UR ecosystem matter more.
• Choose ABB GoFa when repeatability, speed and selected long-reach variants dominate.
• Choose KUKA LBR iisy when KUKA integration and joint torque sensing fit the factory standard.
• Choose Doosan M1013 when force-control architecture and Doosan support are the stronger match.

Use the Anton Robots comparison tool to compare shortlisted robots side by side.

Is the FANUC CRX-10iA/L Worth It?

The CRX-10iA/L is worth it when its long reach, reliable operation and flexible programming remove a recurring production constraint that has measurable financial value. It is poor value when purchased as a general innovation project without a defined task, accepted cycle time and internal owner.

Build the business case from the process

A practical annual-benefit model is:

Annual benefit = direct labour released + overtime avoided + extra contribution from added output + scrap and rework reduction + downtime avoided + ergonomic or safety value − annual operating cost.

Then calculate:

Payback period = total implementation cost ÷ monthly net benefit.

Costs to include

• Robot, controller, pendant, cables and mounting.
• Gripper or process tool, fingers, sensors and tool changers.
• Fixtures, feeders, conveyors and part presentation.
• Safety scanners, guarding, interlocks and process protection.
• Software, vision, force sensor and communication options.
• Mechanical and electrical integration.
• Programming, testing, documentation and training.
• Internal engineering and operator time.
• Consumables, spares and future changeovers.

Benefits to validate

• Operator minutes released per cycle.
• Additional machine hours enabled through unattended tending.
• Weld, dispense or finishing rework avoided.
• Output gained through consistent cycle time.
• Changeover time reduced.
• Injuries or ergonomic exposure reduced using the organisation’s approved method.
• Skilled workers reassigned to higher-value tasks.

Do not double-count labour

If the robot frees 0.5 of an operator but the employee remains fully required elsewhere in the same process, the cash saving may be smaller than the theoretical labour value. The business case can still be strong through extra output, avoided overtime or capacity growth, but the model must reflect what will actually change.

A practical pilot threshold

Before buying multiple cells, prove:

1. The robot reaches every required pose with payload margin.
2. The real cycle time meets the target in the intended safety mode.
3. Part presentation and gripping are reliable.
4. Operators can recover common faults.
5. The process produces accepted quality.
6. The measured benefit supports the required payback.

FANUC CRX-10iA/L Buying Checklist

1. Define the exact task. Specify parts, weights, dimensions, cycle, shifts and quality requirements.
2. Calculate true payload. Include tool, adapter, cables, sensors and the heaviest part.
3. Model centre of gravity. Validate wrist moment and inertia, not just kilograms.
4. Complete a reach study. Use the real machine, fixtures, tool length and approach paths.
5. Set cycle-time acceptance. State whether the target applies in collaborative or guarded high-speed operation.
6. Design part presentation. Decide between fixtures, trays, drawers, conveyor tracking or vision.
7. Select the minimum viable tool. Avoid consuming payload with unnecessary hardware.
8. Define safety architecture. Cover robot, tool, part, machine and every human interaction.
9. Confirm environmental requirements. Check water, dust, coolant, chemicals, temperature and controller location.
10. List controller options. Include fieldbus, vision, force, process packages and software licences.
11. Test abnormal conditions. Missing part, failed grip, machine fault, emergency stop and interrupted cycle.
12. Confirm package contents. Arm, controller, pendant, cables, training, warranty and documentation.
13. Check local support. Identify the integrator, FANUC service route and response expectations.
14. Request three-year TCO. Include tooling wear, spares, software and internal labour.
15. Run a site acceptance test. Use representative parts and production conditions before final sign-off.

Pro tip: do not ask an integrator, “How much is a CRX-10iA/L?” Ask, “What complete, accepted cell will produce this part at this cycle time, in this safety mode, with this changeover requirement?” That question produces a useful quote.

How to Buy the FANUC CRX-10iA/L

The CRX-10iA/L is generally sold through FANUC, authorised distributors, system integrators and complete solution providers. A useful enquiry should describe the process rather than simply request the arm.

Prepare this information before requesting a quote

• Part drawings, photographs and weight range.
• Tool or process requirements.
• Current manual cycle and target automated cycle.
• Machine, fixture and floor-layout drawings.
• Required reach points and access restrictions.
• Shift pattern and annual production volume.
• Water, dust, coolant, temperature and hazardous-area conditions.
• Preferred PLC, network and factory standards.
• Human interaction and safety expectations.
• Required installation date and payback target.

Review the FANUC CRX-10iA/L product page for current marketplace information, then contact Anton Robots to discuss supplier fit, availability and a configuration-specific quote. For buyers still deciding between robot types, the Find My Robot tool can help narrow the shortlist.

What Is New for the FANUC CRX-10iA/L in 2026?

The core CRX-10iA/L hardware remains familiar

FANUC’s current 2026 public information still presents the CRX-10iA/L around the same core proposition: 10 kg payload, 1,418 mm reach, easy tablet programming, underflip motion, IP67 protection and eight years of zero maintenance. No major public hardware replacement for the standard CRX-10iA/L was identified during this review.

A broader CRX family

FANUC America’s current collaborative range describes 12 cobot model variations spanning 3–50 kg payloads and 550–1,889 mm reaches. The expanded family makes it easier to stay inside the same programming and support ecosystem when a project needs a smaller, heavier or specialised robot.

CRX Cobot Integration Module

In June 2026, FANUC’s CRX device catalogue added a Cobot Integration Module that combines a CRX arm with an autonomous mobile robot platform. The system is positioned for machine tending, pick-and-place, assembly, inspection and packaging across multiple workstations. It is a separate mobile automation solution, not a standard feature of the fixed CRX-10iA/L.

ROBOGUIDE V10 and stronger offline engineering

FANUC’s current ROBOGUIDE V10 platform supports 3D cell simulation and offline programming. In July 2026, FANUC published additional guidance around using V10 to develop and validate robot programs on a PC before deployment. This strengthens the engineering workflow but does not change the arm’s mechanical specifications.

Continued expansion of approved devices and pre-engineered cells

FANUC’s CRX catalogue continues to add grippers, sensors, carts, welding systems, machine-tending packages and application plugins. For many buyers, this ecosystem growth is more important than a small hardware revision because it can reduce time from robot purchase to accepted production.

Do not buy based on roadmap language

FANUC is also discussing physical AI, NVIDIA simulation and more adaptive robotics across its wider portfolio. These developments may influence future CRX applications, but buyers should base a 2026 purchase on features, software and support included in the signed quotation—not on general technology announcements.

FANUC CRX-10iA/L FAQ

How much does the FANUC CRX-10iA/L cost?

FANUC does not publish one universal list price. Anton Robots currently lists US$56,900 as a marketplace reference. The complete cell can cost substantially more once tooling, safety, fixtures, software and integration are included.

What is the payload of the CRX-10iA/L?

The maximum wrist payload is 10 kg. This includes the end effector, adapters, sensors, cables carried by the robot and the workpiece.

What is the reach of the CRX-10iA/L?

The published maximum reach is 1,418 mm.

What is the difference between CRX-10iA and CRX-10iA/L?

Both have a 10 kg payload. The CRX-10iA/L is the longer-reach version at 1,418 mm, compared with 1,249 mm for the CRX-10iA. The long version also features underflip motion that can improve flexibility in constrained layouts.

How accurate is the CRX-10iA/L?

FANUC’s current public sources list repeatability of either ±0.04 mm or ±0.05 mm. Confirm the value attached to the quoted robot revision. Repeatability is not the same as absolute positioning accuracy.

How fast is the CRX-10iA/L?

FANUC publishes a maximum linear speed of 1,000 mm/s in collaborative mode and up to 2,000 mm/s in high-speed mode. The safe operating speed depends on the complete application risk assessment.

Is the CRX-10iA/L IP67?

Yes. Current FANUC specifications list IP67 protection for the robot body and the wrist/J3 arm. The controller, tablet and attached equipment may have different ratings.

Can the CRX-10iA/L work without a safety fence?

It can in suitably risk-assessed collaborative applications. A fence-free installation is not guaranteed. The tool, workpiece, machine, speed, pinch points and process hazards determine the required safety measures.

Does the CRX-10iA/L have force sensing?

Yes. FANUC describes integrated force-sensing capabilities for supported contact tasks. External six-axis force sensors are available for higher-sensitivity or more advanced force-control applications.

Can the CRX-10iA/L be programmed by hand?

Yes. The arm supports hand-guided teaching, allowing users to move it to desired positions and record points.

Does it require coding?

Basic applications can be created through the drag-and-drop Tablet Teach Pendant without conventional text-based coding. Complex integration, custom logic and communication may still require specialist programming.

Which controller does it use?

The CRX-10iA/L uses FANUC’s R-30iB Plus controller family, commonly in a compact Mini Plus package.

Can it be mounted upside down?

Yes. FANUC lists floor, angled and inverted mounting positions.

Can the CRX-10iA/L weld?

Yes. Welding is one of its most established applications, with official FANUC packages and customer case studies. The cell still needs a compatible welding source, torch, fixtures, safety controls and fume management.

Can it tend CNC machines?

Yes. Its reach and payload make it a strong machine-tending candidate. The final solution requires machine communication, safe door and chuck control, part presentation and fault recovery.

Can it palletize?

Yes, within its 10 kg payload and reachable pallet height. A lifting column or a higher-payload, longer-reach model may be better for tall pallets, heavy cases or high rates.

Is the standard CRX-10iA/L suitable for food handling?

FANUC offers a dedicated CRX-10iA/L Food Grade version with NSF-H1 grease, white epoxy paint and corrosion-resistant treatment. Buyers with hygiene or washdown requirements should specify that version rather than assuming the standard model is equivalent.

Is it explosion-proof for painting?

The standard model should not be treated as explosion-proof. FANUC offers a separate CRX-10iA/L Paint model designed for painting and coating environments and positioned for relevant global explosion-protection certifications.

How often does the CRX-10iA/L need maintenance?

FANUC markets the CRX series as providing eight years of zero maintenance on motors, reducers, cables, sensors and grease. The complete cell, tooling and routine inspections still require maintenance.

What is the best alternative to the CRX-10iA/L?

The Universal Robots UR10e is a strong alternative for higher nominal payload and a lighter arm; ABB GoFa for speed and repeatability; KUKA LBR iisy for KUKA integration and joint torque sensing; and Doosan M1013 for force-control-focused applications. The best choice depends on the full cell.

Is the FANUC CRX-10iA/L worth the money?

It can be when the application uses its long reach, IP67 protection, reliability and support to produce measurable labour, output, quality or ergonomic gains. It is not good value without a repeatable process and production owner.

Final Verdict: Should You Buy the FANUC CRX-10iA/L?

Buy or pilot the FANUC CRX-10iA/L when you need a long-reach 10 kg cobot that combines easy teaching with industrial protection, a mature software ecosystem and strong long-term support. Its 1,418 mm reach, IP67 rating, integrated force functions and flexible mounting make it particularly attractive for machine tending, welding, dispensing, assembly and inspection.

The main limitations are equally clear. Ten kilograms can disappear quickly once tooling is included. The arm is not the lightest in its class. Collaborative speed may be lower than the rate needed for high-volume production, and the total project cost depends far more on the cell than on the robot alone.

The most intelligent buying path is application-led: model the real tool and part, confirm reach and wrist loading, run the cycle in the intended safety mode, test fault recovery and price the complete production-ready system. When those conditions are met, the CRX-10iA/L is one of the most credible and balanced cobots in the 10 kg class.

Ready to evaluate a configuration? View the FANUC CRX-10iA/L at Anton Robots, compare it with other collaborative robots or request help matching the robot and cell to your application.