Dobot CR10 Review: Specs, Pros, Cons & CR10A

Dobot CR10: Quick Buyer Verdict

The Dobot CR10 sits in one of the most useful cobot classes for industrial automation: approximately 10 kg payload with roughly 1.3 m of working radius.

That combination is large enough for many palletizing, loading, packaging, tending and handling applications without moving into the size, cost and integration complexity of a much heavier industrial robot.

Dobot publishes a 10 kg maximum payload, 1,300 mm working radius, 1,525 mm maximum reach, ±0.03 mm repeatability and maximum TCP speed of 4 m/s for the original CR10.

Those numbers remain competitive enough for many applications.

The buying question in 2026 is different: the CR10 is now an older-generation platform beside the newer CR10A. For a new installation, the CR10 only becomes particularly attractive if availability, support or pricing gives it a meaningful advantage.

Pros

• 10 kg payload covers a broad range of industrial applications.
• 1,300 mm working radius provides useful reach around machinery and pallets.
• Published ±0.03 mm repeatability.
• Maximum TCP speed listed at up to 4 m/s.
• Six-axis articulated architecture.
• 40 kg robot mass is manageable compared with many conventional industrial arms.
• IP54 robot protection.
• Supports TCP/IP, Modbus and Wi-Fi communication.
• RS485 available at the end effector.
• DobotStudio Pro provides multiple programming approaches.
• Optional SafeSkin proximity sensing can add pre-collision detection.
• Well suited to palletizing, machine tending, loading, unloading and material handling.
• Part of a broad Dobot ecosystem of grippers, vision, welding and automation accessories.

Cons

• The CR10 is no longer Dobot’s newest 10 kg collaborative platform.
• The CR10A provides a more current architecture for new projects.
• Dobot does not publish a simple global list price for the original CR10.
• IP54 is insufficient for many wet, washdown or severe industrial environments.
• A 10 kg payload can become restrictive once gripper weight is included.
• The published payload is not the same as usable workpiece payload in every pose and dynamic condition.
• SafeSkin is optional rather than automatically included.
• Maximum robot speed cannot be assumed to be safe collaborative speed.
• A complete application still requires tooling, guarding or safety devices, engineering and commissioning.
• Legacy software, controller revision and spare-part support should be confirmed before buying used or old stock.

Our recommendation: shortlist the CR10 when you can obtain it at a compelling installed cost or when an existing facility already standardises on the CR platform. For a completely new 2026 installation, request a CR10A quote at the same time and compare the complete system rather than the robot-arm price alone.

See the Dobot CR10 product page or browse other collaborative robots before requesting a final quotation.

How Much Does the Dobot CR10 Cost in 2026?

Dobot does not publish a single current global retail price for the original CR10. Buyers are normally directed to Dobot or a regional distributor for quotation.

That makes online comparisons difficult because a quoted “CR10 price” may represent very different packages.

A quotation can include only the robot and controller, or it can include:

• Robot arm.
• Control cabinet.
• Teach pendant or alternative teaching hardware.
• Robot-to-controller cable.
• Mounting base.
• Gripper.
• Vacuum system.
• Vision hardware.
• SafeSkin.
• Palletizing software.
• Welding equipment.
• Safety scanners.
• External emergency stops.
• Pedestals and guarding.
• PLC integration.
• Engineering.
• Installation.
• Commissioning.
• Training.
• Freight.
• Warranty and local support.

Use the CR10A as a price reference

Because the CR10A is the newer 10 kg Dobot platform, a legacy CR10 quote should always be compared with a CR10A quotation.

Current distributor pricing for CR10A systems varies materially by market and configuration. Public listings in 2026 show why there is little value in assuming one universal “Dobot CR10 price.”

The important purchasing question is therefore:

How much am I saving by choosing the older CR10 once the complete working cell is included?

A small discount on the robot arm may disappear after engineering, tooling and commissioning.

Do not buy the cheapest robot arm

For a commercial deployment, compare installed cost per productive cycle, not the purchase price of the manipulator.

A more expensive system can have a lower lifetime cost if it:

• reaches the application without a seventh axis;
• requires less custom integration;
• has better local support;
• reduces commissioning time;
• uses standard tooling;
• achieves the required cycle time;
• has readily available spare parts;
• reduces operator intervention.

For broader market context, see our cobot price guide and robotic arm price guide.

What Is the Dobot CR10?

The Dobot CR10 is a six-axis collaborative robotic arm from Dobot’s original CR Series.

It was designed to bring conventional industrial robot applications into a more accessible collaborative platform, using hand-guided teaching, software-based programming, collision detection and a relatively compact installation footprint.

The CR10 occupies the middle of the original CR family.

Its defining specifications are:

• 10 kg maximum payload.
• 1,300 mm working radius.
• 1,525 mm published maximum reach.
• ±0.03 mm repeatability.
• Up to 4 m/s maximum TCP speed.
• 40 kg robot weight.
• Six controlled axes.
• IP54 protection.

Dobot promotes the CR10 for applications including palletizing, unpacking, transport, loading and unloading. The wider CR platform is also used for welding, assembly, bin picking, gluing, polishing, inspection and screwdriving.

What the CR10 is

• A medium-payload collaborative industrial arm.
• A flexible alternative to fixed automation for variable production.
• A useful platform for palletizing and machine tending.
• A robot that can be integrated with grippers, vision and other industrial peripherals.
• A programmable six-axis robot for repetitive manipulation.
• A platform that can support collaborative operating concepts after appropriate risk assessment.

What the CR10 is not

• It is not automatically safe simply because it is sold as a cobot.
• It is not a complete palletizing system without tooling, software and cell engineering.
• It is not a 10 kg workpiece handler when the end effector itself consumes part of that payload.
• It is not a washdown robot.
• It is not an outdoor robot.
• It is not the latest generation of Dobot’s 10 kg collaborative platform.
• It does not remove the need for an application-specific risk assessment.

If you are comparing the category rather than one model, browse current cobots or robotic arms.

Dobot CR10 vs CR10A: Which Should You Buy?

This is the most important section of a Dobot CR10 review in 2026.

The CR10A belongs to Dobot’s newer CRA generation.

The original CR10 and CR10A share the same basic market position:

• 10 kg maximum payload.
• 1,300 mm working radius.
• 40 kg robot weight.
• ±0.03 mm repeatability.
• Six-axis architecture.
• IP54 protection.

But the platform surrounding the arm has evolved.

Dobot describes the CRA generation as using newer integrated joints, EtherCAT servo communication, an upgraded controller, expanded safety functions, broader industrial communication and a newer DobotStudio Pro environment.

Choose the CR10 when:

• You receive a materially better commercial offer.
• Your factory already operates CR Series robots.
• Your engineers already maintain the relevant controller and software stack.
• The application has already been validated on CR10 hardware.
• Local support has confirmed long-term spare-part availability.

Choose the CR10A when:

• You are starting a completely new project.
• The price difference is relatively small.
• You want Dobot’s current controller and software architecture.
• You need broader PLC and industrial-network integration.
• You expect to standardise future installations around the same platform.
• Long-term product lifecycle matters more than the lowest initial purchase price.

Buyer rule: if a distributor quotes a CR10 in 2026, ask for a CR10A quote on the same day.

Do not compare only the arm price. Require the same tooling, software, safety equipment, support, installation and warranty scope in both quotations.

Dobot CR10 Specifications

The following values reflect Dobot’s published specifications for the original CR10.

Working radius vs maximum reach

Dobot’s CR10 documentation lists both a 1,300 mm working radius and 1,525 mm maximum reach.

Do not design a cell by drawing a simple 1,525 mm circle around the robot.

A six-axis robot has a three-dimensional operating envelope affected by:

• individual joint limits;
• wrist orientation;
• tool length;
• tool orientation;
• payload centre of gravity;
• singularities;
• collision clearance;
• machine geometry;
• safety zones.

Use the official working-envelope drawing or a simulation of the exact application before fixing the pedestal or machine location.

What the specification sheet does not tell you

A specification table alone cannot tell you:

• whether the robot reaches every required pose;
• how much payload is available with a large gripper;
• whether your target cycle time is achievable;
• whether the robot can safely operate without fencing;
• how accurately the complete tool reaches a part;
• how stable the mounting structure must be;
• how quickly an operator can recover from faults;
• how much integration engineering is required.

Those questions must be answered at application level.

Dobot CR10 Payload, Reach and Workspace

The CR10’s 10 kg payload and 1,300 mm working radius are the core reason to consider it.

Ten kilograms is enough for many practical automation tasks, but payload means everything attached to the robot flange—not just the product being moved.

For example:

• Workpiece: 7 kg
• Gripper: 2 kg
• Adapter plate: 0.5 kg
• Cables and fittings: 0.3 kg

The total moving payload is already approximately 9.8 kg.

That leaves almost no margin.

Payload also depends on centre of gravity

A 10 kg object held close to the flange creates a different mechanical load from the same 10 kg object held far away by a long tool.

Before buying, provide the integrator with:

• maximum part mass;
• tool mass;
• tool centre of gravity;
• part centre of gravity;
• maximum required acceleration;
• orientation of the load throughout the cycle.

Do not size a cobot by payload alone.

When 1,300 mm is genuinely useful

The CR10’s reach can reduce additional automation hardware in applications such as:

• servicing two adjacent machines;
• reaching deep into a CNC machine;
• moving between a conveyor and pallet;
• palletizing across a wider footprint;
• loading parts from multiple fixtures;
• welding larger components;
• handling products across a wide table.

However, excess reach has trade-offs.

A larger arm generally occupies more space and may be less convenient when the process occurs directly beside the robot.

If the entire task fits inside a smaller envelope, a Dobot CR5 or another smaller cobot may be easier to integrate.

Dobot CR10 Speed and Repeatability

Dobot publishes a maximum TCP speed of 4 m/s for the original CR10 and position repeatability of ±0.03 mm.

Both figures are attractive, but buyers should understand what they mean.

4 m/s does not mean every production cycle runs at 4 m/s

Maximum TCP speed is not the same as average task speed.

Real cycle time depends on:

• distance between points;
• acceleration and deceleration;
• joint configuration;
• payload;
• tool geometry;
• path blending;
• part settling;
• gripper actuation time;
• machine handshake time;
• safety limits;
• human presence;
• quality checks.

A robot can have a high headline speed and still spend most of the cycle waiting for a machine door, gripper or process.

Collaborative operation can reduce usable speed

The maximum mechanical speed should never be confused with the speed permitted around people.

A collaborative application has to be engineered around the actual hazards.

The safe operating speed may be significantly lower than the robot’s mechanical maximum depending on:

• separation distance;
• tool shape;
• payload;
• body regions that could be contacted;
• crushing points;
• robot stopping performance;
• safety system architecture.

What does ±0.03 mm repeatability mean?

Repeatability describes how consistently the robot can return to a taught position under defined test conditions.

It does not mean every real-world application will achieve ±0.03 mm process accuracy.

Complete system performance also depends on:

• base rigidity;
• tool deflection;
• workpiece tolerances;
• fixture repeatability;
• camera calibration;
• temperature;
• payload;
• TCP calibration;
• mechanical wear.

For machine loading and general handling, the CR10’s stated repeatability is strong. High-precision assembly should still be validated with the complete tooling and fixture.

Programming the Dobot CR10

The CR Series is programmed through Dobot’s industrial software ecosystem, particularly DobotStudio Pro.

Dobot has supported several programming approaches across the CR platform.

Teach and playback

For straightforward tasks, operators can teach positions and build sequences around them.

This works well for:

• pick-and-place;
• machine loading;
• simple pallet patterns;
• transfer tasks;
• repetitive dispensing paths.

Graphical programming

Dobot has provided Blockly-style graphical programming for users who do not want to build every automation routine in conventional code.

This lowers the entry barrier for simple logic involving:

• robot moves;
• I/O;
• loops;
• conditions;
• delays;
• basic process sequences.

Script programming

More advanced applications can use script-based programming.

This is more appropriate when the application requires:

• complex logic;
• data handling;
• machine communication;
• parameterised programs;
• multiple product variants;
• external systems.

Software lifecycle matters in 2026

This is another reason to separate CR10 from CR10A.

Dobot’s download centre continues to provide CR-compatible software and documentation, but the company has also developed a newer software/controller branch for CRA robots.

If you are buying a CR10 now, confirm:

• controller model;
• controller firmware;
• DobotStudio Pro version;
• PC operating-system compatibility;
• backup and restore procedure;
• offline programming options;
• API version;
• PLC protocol support;
• future update policy;
• availability of the exact software installer.

Keep an offline copy of the working software, robot program, configuration and firmware documentation used by the production cell.

Dobot CR10 I/O and Industrial Integration

A robot rarely creates value by itself.

The CR10 normally has to communicate with:

• grippers;
• vacuum generators;
• CNC machines;
• PLCs;
• conveyors;
• vision systems;
• door controllers;
• safety devices;
• process equipment.

Dobot’s original CR10 specification lists TCP/IP, Modbus and Wi-Fi communication, plus RS485 at the end effector.

The controller specification also provides multiple digital and analog I/O channels.

Tool-side communication matters

Tool-side I/O reduces the amount of external cabling required along the arm.

That can simplify integration for:

• electric grippers;
• vacuum switches;
• tool sensors;
• simple smart end effectors.

But confirm voltage, current and communications requirements for the actual tool before assuming direct compatibility.

Do not assume CR10 and CR10A interfaces are identical

The newer CRA architecture has broader current protocol support and a different controller generation.

If an integrator has designed a cell around CR10A documentation, do not automatically apply that architecture to an original CR10.

Request the manual for the exact controller supplied with the robot.

Dobot CR10 Safety, Collision Detection and SafeSkin

Calling the CR10 a collaborative robot does not make every CR10 installation collaborative.

Robot safety is an application property, not just a robot-arm feature.

The complete system includes:

• robot;
• end effector;
• workpiece;
• fixtures;
• machines;
• software;
• people;
• surrounding structures.

Each can create hazards.

SafeSkin

Dobot offers SafeSkin technology for compatible collaborative robot applications.

SafeSkin uses proximity sensing to detect objects before physical contact.

Dobot publishes:

• proximity and contact sensing;
• approximately 5–15 cm effective sensing range depending on installation;
• 0.01-second sensing cycle;
• 0.1-second emergency-stop execution time.

The technology is intended to detect targets including people, metals and liquids, although Dobot notes that sensing can be less effective with non-conductive objects.

That limitation matters.

SafeSkin should not be treated as a universal invisible barrier that reliably detects every possible object.

SafeSkin is optional

A quotation that simply says “Dobot CR10” should not be assumed to include SafeSkin.

Ask the supplier to list:

• SafeSkin modules included;
• which joints they cover;
• controller compatibility;
• safety configuration;
• validation procedure;
• certification documentation.

Current standards matter

Dobot historically referenced standards including ISO 10218, ISO 13849 and ISO/TS 15066 for its collaborative robot and SafeSkin platforms.

The industrial robot safety framework has since evolved. ISO 10218-1:2025 and ISO 10218-2:2025 are now the current editions of the principal industrial robot safety standards, while ISO/TS 15066 remains important guidance for collaborative applications.

A buyer should therefore request current compliance documentation rather than relying only on an old web-page statement.

A cobot may still need guarding

Applications such as welding, cutting or handling sharp and heavy parts can remain hazardous even if the robot itself includes collaborative safety functions.

For example:

• A welding torch creates heat, arc and fume hazards.
• A knife creates a cutting hazard.
• A sharp metal workpiece creates an impact hazard.
• A heavy payload creates crushing risk.
• A machine tool creates hazards independent of the robot.

Risk-assess the complete cell.

Best Applications for the Dobot CR10

The CR10 works best where its particular balance of payload and reach solves a real production problem.

1. Palletizing

One of the strongest CR10 use cases.

Ten kilograms of payload and a 1.3 m working radius allow the robot to handle many cartons, trays and packaged products while covering a useful palletizing area.

A complete system may still require:

• palletizing software;
• pedestal;
• vacuum gripper;
• conveyor sensing;
• box detection;
• safety system.

2. Machine tending

The CR10 can load and unload CNC machines, presses and other production equipment.

Its reach is useful where the robot must move between a part tray and a relatively deep machine workspace.

3. Material handling

Parts, containers and components can be transferred between:

• conveyors;
• fixtures;
• machines;
• inspection stations;
• packaging stations.

4. Pick and place

The CR10 is suitable where products fall within its usable payload and cycle-time requirements.

For lightweight high-speed products, however, a smaller robot or SCARA may provide better economics.

5. Welding

A CR10 can carry welding tooling and execute repeatable paths.

The robot is only one part of a welding system. Buyers must also consider:

• welding power source;
• torch;
• wire feeder;
• workholding;
• fume extraction;
• safety guarding;
• process programming.

6. Assembly

The arm can support assembly tasks when the required tolerance, forces and tooling are compatible.

Force-sensitive insertion may require additional sensing or purpose-built tooling.

7. Screwdriving

With a suitable screwdriver, feeder and reaction strategy, the CR10 can automate repetitive screwdriving tasks.

8. Gluing and dispensing

The robot’s repeatable six-axis motion can follow adhesive and sealant paths.

Process quality still depends heavily on fluid control, calibration and part fixturing.

9. Inspection

A camera or sensor mounted on the arm can inspect larger workpieces from multiple angles.

10. Polishing and surface processing

The robot can follow surface paths, but compliant tools or force-control hardware may be required to maintain process pressure consistently.

Is the Dobot CR10 Good for Palletizing?

Yes. Palletizing is one of the clearest reasons to shortlist the CR10.

Dobot itself positions the model for palletizing and material-handling applications.

The 10 kg payload works particularly well for small-to-medium cartons.

However, four questions determine whether it actually fits your palletizing line.

1. How heavy is the complete payload?

Include:

• carton;
• vacuum gripper;
• vacuum manifold;
• adapter plate;
• hoses;
• sensors.

2. Can it reach the highest and furthest box?

Test all four corners of the pallet and the maximum stack height.

Do not validate only the easiest position.

3. What throughput is required?

Calculate:

• boxes per minute;
• pick time;
• travel time;
• place time;
• conveyor waiting time;
• layer-change logic.

4. Does the system require a pedestal?

Mounting height can dramatically change the usable pallet envelope.

A pedestal is not automatically a disadvantage; it is often the simplest way to optimise pallet reach.

Recommendation: require the integrator to simulate the exact carton dimensions, pallet dimensions, stack height and end effector before signing the purchase order.

Is the Dobot CR10 Good for CNC Machine Tending?

The CR10’s 1.3 m working radius makes it well suited to many machine-tending layouts.

A typical cycle can include:

1. Pick raw component.
2. Open machine door.
3. Remove finished component.
4. Load new component.
5. Close door.
6. Start machine cycle.
7. Place completed component.

The engineering difficulty is usually not the robot motion itself.

The larger integration questions are:

• How is the machine door controlled?
• How does the robot know the spindle has stopped?
• How are parts located?
• How are chips and coolant handled?
• Can the gripper tolerate contamination?
• How is a failed grip detected?
• What happens when the machine alarms?
• Can the robot reach the chuck without singularities?

IP54 deserves attention

The CR10’s IP54 rating provides limited protection against dust and splashing water.

That does not make it a washdown robot or guarantee suitability for direct exposure to coolant.

Design the cell so the robot is protected from unnecessary contamination and confirm the environmental requirements with the integrator.

Is the Dobot CR10 Good for Welding?

The CR10 can be integrated into collaborative welding systems and Dobot lists welding among the applications supported by its collaborative portfolio.

Its reach is useful for larger components and its six axes allow the torch to approach welds from multiple orientations.

But “cobot welding” is often oversimplified.

The system still needs:

• welding power source;
• torch and cable management;
• wire feeder;
• workpiece fixture;
• fume extraction;
• arc protection;
• appropriate PPE;
• process parameters;
• safety controls.

The fact that the robot arm can operate collaboratively does not mean an active welding process is safe for an unprotected person standing beside it.

For repetitive low-volume welding where product variants change frequently, the ease of reprogramming a cobot can still be attractive.

When the Dobot CR10 Is Not the Right Robot

The CR10 is versatile, but it should not be selected simply because 10 kg and 1.3 m sound like useful numbers.

Reject or reconsider it when:

• The payload exceeds 10 kg: tooling reduces the available workpiece payload further.
• The process needs substantially more reach: forcing a 1.3 m arm into a larger layout can create poor postures or require an external axis.
• The process is extremely fast and repetitive: a conventional industrial robot or SCARA may offer higher throughput.
• The environment is wet or severe: IP54 may be inadequate.
• The application is washdown: select equipment designed for that environment.
• You need turnkey force control: verify the required sensing and control hardware rather than assuming it is standard.
• The application can use a much smaller arm: excess reach and payload can increase cost and floor-space requirements.
• You are paying almost the same as for CR10A: the newer platform usually deserves preference for a greenfield installation.
• Local support is weak: production automation needs service and spare parts, not only hardware.
• The used robot lacks known software and controller history: savings can disappear quickly if commissioning becomes a compatibility project.

Do not overuse cobots

A collaborative robot is not automatically the best answer whenever people work in the same factory.

If the process can be physically isolated and needs very high speed, a conventional industrial robot may provide better throughput.

If the payload is 2 kg and every point sits within 600 mm, a CR10 may simply be oversized.

The right robot is the smallest and simplest system that reliably satisfies the complete application.

Dobot CR10 Alternatives

The CR10 competes in a crowded and mature part of the collaborative-robot market.

Several alternatives should be considered before committing to a new 10 kg-class installation.

Dobot CR10 vs CR10A

For most new Dobot projects, compare these first.

The CR10 only needs to win on something tangible: lower installed cost, availability, proven existing application or fleet compatibility.

Dobot CR10 vs Universal Robots UR10e

The UR10e is one of the strongest benchmarks in this class.

Universal Robots offers a mature software and accessory ecosystem, broad global adoption and extensive integration support.

The CR10 counters with competitive repeatability and potentially aggressive system economics.

Read our Universal Robots UR10e Review for a deeper look.

Dobot CR10 vs FANUC CRX-10iA/L

The FANUC CRX-10iA/L provides 10 kg payload, 1,418 mm reach and IP67 protection on the robot body.

That makes it particularly relevant when buyers value environmental protection, extra reach or an existing FANUC automation ecosystem.

Read our FANUC CRX-10iA/L Review.

Dobot CR10 vs Doosan M1013

The Doosan M1013 is almost a direct payload-and-reach match:

• 10 kg payload.
• 1,300 mm reach.
• 33 kg robot mass.
• ±0.05 mm repeatability.

Doosan is particularly relevant for applications where force-control functionality is central to the process.

Which should you choose?

• Choose CR10 when the commercial offer is substantially better or you already operate the CR platform.
• Choose CR10A for most new Dobot-based installations.
• Choose UR10e when ecosystem depth and broad integrator availability matter heavily.
• Choose FANUC CRX-10iA/L when environmental protection, FANUC support or additional reach matters.
• Choose Doosan M1013 when advanced force-sensitive applications are central to the project.

Use the Anton Robots comparison tool to compare robot specifications and available models.

Is the Dobot CR10 Worth It in 2026?

Yes—but primarily when the commercial case recognises that it is an older-generation platform.

The CR10 itself has not suddenly become a bad robot.

Its core numbers remain useful:

• 10 kg payload;
• 1.3 m working radius;
• ±0.03 mm repeatability;
• six axes;
• industrial communication;
• broad application range.

The issue is opportunity cost.

A buyer should not evaluate the CR10 against robots available when the model was introduced. It must compete against what can be purchased today.

That includes Dobot’s own CR10A.

When the CR10 can be excellent value

• Discounted new-old stock.
• A proven used unit with known service history.
• An additional robot for a factory already operating CR Series equipment.
• A validated application where changing platform adds unnecessary engineering.
• A package with strong local support and spare parts.

When the value proposition becomes weak

• The quote is close to CR10A pricing.
• The supplier cannot define the controller revision.
• Software support is unclear.
• Spare-part availability is uncertain.
• The warranty is materially weaker than a newer robot.
• The system requires extensive custom integration anyway.

Use total installed cost, not purchase price

Imagine:

Option A

• Cheaper CR10 arm.
• More engineering.
• Legacy software troubleshooting.
• Custom PLC integration.

Option B

• More expensive newer robot.
• Faster integration.
• Current software.
• Better supported peripherals.

Option B can easily produce the lower project cost.

The correct comparison is therefore:

Total cost to achieve the required production rate reliably and safely—not robot price.

Dobot CR10 Buying Checklist

1. Define the task. Record every pick, place, process and waiting step.
2. Calculate total payload. Include the product, tool, adapters, hoses and cables.
3. Define centre of gravity. Payload alone is not sufficient.
4. Validate every robot pose. Do not buy from reach numbers alone.
5. Calculate cycle time. Include machine and tool delays.
6. Confirm CR10 vs CR10A. Obtain quotations for both.
7. Identify the exact controller. Record model and hardware revision.
8. Confirm software versions. Obtain installers and documentation.
9. List communication requirements. PLC, Modbus, TCP/IP, I/O and tool communication.
10. Select end-of-arm tooling. Match it to the actual workpiece.
11. Decide whether vision is required. Avoid unnecessary complexity where fixtures can solve the problem.
12. Complete a risk assessment. Do not assume cobot equals fence-free.
13. Confirm SafeSkin. Determine whether it is included and appropriate.
14. Check IP requirements. CR10 is IP54.
15. Confirm mounting. Design the pedestal or base for stiffness and access.
16. Define cable management. Include moving tools and process cables.
17. Request warranty terms. Clarify robot, controller and accessory coverage.
18. Confirm spare parts. Especially for a legacy platform.
19. Identify local service capability. Ask who physically attends failures.
20. Define acceptance tests. Set measurable criteria before purchase.

Recommended factory-acceptance tests

Before accepting the system, verify:

• payload handling;
• all required poses;
• full production cycle;
• cycle time;
• repeatability;
• grip-loss detection;
• machine communication;
• safety functions;
• emergency stopping;
• restart after fault;
• power-loss behaviour;
• recipe or product change;
• operator recovery procedure;
• required production duration without intervention.

Pro tip: do not accept a demonstration using an empty gripper if your application requires a 9 kg combined payload. Test the exact payload, tool, reach and cycle conditions that matter in production.

How to Buy the Dobot CR10

Dobot products are sold through Dobot and regional distribution and integration partners.

Because the original CR10 now sits beside newer Dobot platforms, your enquiry should explicitly state that you are evaluating both the CR10 and CR10A.

A useful RFQ should include:

• Company and installation country.
• Application.
• Required payload.
• End-effector mass.
• Payload centre of gravity.
• Required reach.
• Required cycle time.
• Operating hours per day.
• Number of shifts.
• Environmental conditions.
• Required PLC or communications protocols.
• Safety concept.
• Vision requirements.
• Installation target date.
• Required training.
• Required warranty and support.

Before placing the order, request:

• Exact robot model and serial-generation information.
• Controller model.
• Complete bill of materials.
• Software and firmware versions.
• Product lifecycle/support statement.
• Warranty documentation.
• Applicable compliance declarations.
• Spare-part availability.
• Lead time.
• Freight terms.
• Commissioning scope.
• Training scope.
• Acceptance criteria.

View the Dobot CR10 at Anton Robots or contact Anton Robots to compare available robots and suppliers.

If you are not yet certain that a 10 kg cobot is the correct architecture, use Find My Robot before committing to one model.

Dobot CR10 FAQ

What is the Dobot CR10 payload?

The Dobot CR10 has a published maximum payload of 10 kg. Remember that the payload includes the end effector and anything attached to it, not only the workpiece.

What is the Dobot CR10 reach?

Dobot publishes a 1,300 mm working radius and a 1,525 mm maximum reach figure for the original CR10. Use the full working-envelope drawing when designing a cell rather than relying on one reach number.

How accurate is the Dobot CR10?

Dobot publishes position repeatability of ±0.03 mm.

How fast is the Dobot CR10?

The original CR10 specification lists a maximum TCP speed of up to 4 m/s. Actual production and collaborative operating speeds depend on the application.

How much does the Dobot CR10 weigh?

The robot arm weighs approximately 40 kg.

How many axes does the Dobot CR10 have?

The CR10 is a six-axis articulated collaborative robot.

What is the Dobot CR10 IP rating?

The robot is rated IP54. Dobot documentation for the original platform also distinguishes the control-box protection, so confirm the exact cabinet supplied.

Is the Dobot CR10 waterproof?

No. IP54 should not be interpreted as waterproof or washdown rated.

Can the Dobot CR10 palletize?

Yes. Palletizing is one of the primary applications Dobot identifies for the CR10. Suitability depends on carton mass, gripper weight, pallet dimensions, stack height and required throughput.

Can the Dobot CR10 weld?

Yes, it can be integrated into a robotic welding system. The robot still requires welding hardware, fixtures, process controls and appropriate safety measures.

Can the Dobot CR10 tend CNC machines?

Yes. Its 10 kg payload and 1,300 mm working radius make it suitable for many machine-tending applications.

Does the Dobot CR10 support Modbus?

Yes. Dobot lists Modbus among the communication methods for the original CR platform.

Does the Dobot CR10 have Wi-Fi?

Dobot’s published CR10 specifications list Wi-Fi connectivity.

Can the Dobot CR10 be programmed graphically?

Yes. DobotStudio Pro supports graphical programming as well as other programming approaches.

What is Dobot SafeSkin?

SafeSkin is Dobot’s optional pre-collision sensing technology. It detects certain objects before contact and can trigger protective behaviour. It is not a substitute for a complete application risk assessment.

Does SafeSkin come standard with the CR10?

Do not assume so. SafeSkin is an optional system and must be confirmed in the quotation.

Is the Dobot CR10 safe to use without fencing?

Possibly in a properly designed application, but not automatically. The complete robot application must be risk-assessed, including its tool, payload, speed, surrounding machines and foreseeable human interaction.

What is the difference between Dobot CR10 and CR10A?

The CR10 is from Dobot’s original CR Series. The CR10A is part of the newer CRA generation with updated joints, controller architecture, software and industrial integration capabilities while maintaining the same 10 kg payload and 1,300 mm working radius.

Should I buy a CR10 or CR10A in 2026?

For a new installation, the CR10A should normally be the starting point. The original CR10 can still make sense when it is substantially cheaper, already validated for the application or compatible with an existing CR fleet.

Is the Dobot CR10 still worth buying?

Yes, at the right price and with confirmed support. Its payload, reach and repeatability remain useful. The purchase becomes less attractive if its installed cost approaches that of a newer CR10A.

What are the best Dobot CR10 alternatives?

Relevant alternatives include the Dobot CR10A, Universal Robots UR10e, FANUC CRX-10iA/L, Doosan M1013 and other 10–12 kg collaborative robots.

Final Verdict: Should You Buy the Dobot CR10?

The Dobot CR10 remains a capable 10 kg collaborative robot for palletizing, machine tending, material handling, welding and other medium-payload automation tasks.

Its fundamentals are good: 10 kg payload, 1,300 mm working radius, ±0.03 mm repeatability, six-axis movement and a published maximum TCP speed of 4 m/s.

Those specifications are not the problem.

The issue in 2026 is that the original CR10 now has to justify itself against Dobot’s newer CR10A and a mature field of competing cobots.

For an existing CR installation, a discounted CR10 or a project already validated around CR10 hardware, that can be an easy decision.

For a greenfield factory project, the purchasing sequence should be different:

1. Define the application.
2. Calculate the true payload and reach requirement.
3. Request a CR10 quotation.
4. Request an equivalent CR10A quotation.
5. Compare complete installed cost.
6. Compare software, integration, support and lifecycle.
7. Run the exact production cycle before acceptance.

Do not choose the CR10 because the specification sheet looks good.

Choose it only if the complete project—robot, tooling, engineering, safety, support and expected production performance—beats the available alternatives.

If the price advantage is substantial and support is secure, the CR10 can still be a very rational automation purchase.

If the price is close to CR10A, buying the newer platform is usually the stronger long-term decision.

View the Dobot CR10 at Anton Robots, compare other collaborative robots, or contact Anton Robots for help comparing models and suppliers.