Collaborative Robot Supplier Landscape

Cobot Manufacturers and Collaborative Robot Suppliers

Collaborative robot suppliers range from complete cobot OEMs and application specialists to system integrators, distributors, component companies and ready-to-deploy solution providers.

This guide explains how cobot manufacturers differ, which manufacturing applications suit collaborative automation, and what buyers should verify before choosing a robot platform or integration partner.

Discuss Your Requirements Compare Cobot Suppliers

Last reviewed: July 2026 Reviewing organization: Yana Sourcing

What Is a Cobot?

A cobot, or collaborative robot, is the common market term for an industrial robot designed with technologies that can support collaborative applications in which people and robots share a workspace.

The robot arm alone does not make the application collaborative or safe. The complete system—including tooling, workpiece, motion, speed, layout and human interaction—must be assessed and validated for its intended use.

IFR describes cobots as industrial robots designed and intended for collaborative use. Current safety guidance distinguishes the robot itself from the complete application or cell. Source: International Federation of Robotics.

Terminology note: “Cobot” is useful commercial terminology, but safety engineering should refer to the specific collaborative technology and application. The revised ANSI/A3 R15.06-2025 framework identifies hand guiding, speed and separation monitoring, and power and force limiting as collaborative technologies rather than treating “cobot” as one uniform machine category. A3’s 2025 explanation explicitly warns that “cobot” is often used too broadly and identifies those three collaborative technologies.

In summary

A cobot is still an industrial robot.
Collaborative operation is an application-level design condition.
The tool, workpiece and surrounding equipment affect safety.
A cobot manufacturer may supply only the arm and controller.
The integrator may be responsible for tooling, process design and validation.
Supplier selection must evaluate the complete application, not only payload and reach.

Core thesis: A cobot arm is a component of a collaborative application. Safety, productivity and ROI depend on the complete system: robot, tooling, workpiece, process, workspace, software, integration and risk controls. A3 emphasizes that the risk assessment must cover the complete robotic application, including the end effector and workpiece—not only the robot arm.

Collaborative Robotics at a Glance

10.5%

Cobot share of industrial robot installations in 2023

542,000

Global industrial robots installed in 2024

2025

ISO 10218 Parts 1 and 2 published

20 Jan 2027

EU Machinery Regulation application date

IFR reported that cobots accounted for 10.5% of worldwide industrial robot installations in 2023. The later World Robotics 2025 report recorded 542,000 total industrial robot installations in 2024, but does not provide the same explicit cobot-share figure in its public summary; do not infer a 2024 cobot share without a source. ISO 10218-1:2025 addresses industrial robot manufacturers, while ISO 10218-2:2025 addresses applications and robot cells. Regulation (EU) 2023/1230 generally applies from 20 January 2027.

Required source note: Market figures use different reporting years. Display the year beside every metric and do not merge them into a single market-size claim. Sources: IFR World Robotics 2025; ISO 10218-1:2025; EUR-Lex machinery safety.

What Is the Difference Between a Cobot Manufacturer, Supplier and Integrator?

Cobot OEM

Arm, controller, firmware and core safety functions.

System Integrator

Tooling, process, layout, interfaces and risk reduction.

Ready-to-deploy Solution

Pre-engineered arm, tooling and software package.

Distributor

Product sales, stock, support and logistics.

Ecosystem Supplier

Grippers, vision, sensors, software or safety equipment.

Specialist OEM

Defined payload, industry or process segment.

ODM / Private-Label

Development and production for another brand.

Mobile Cobot Supplier

Arm mounted on an AMR or mobile base.

Company model	What it normally controls	Typical deliverable	Main buyer risk
Cobot OEM	Robot arm, controller, firmware and core safety functions	Arm and controller	Does not guarantee application performance or safety
Specialist cobot manufacturer	Defined payload, industry or process segment	Welding, palletizing or compact cobot platform	Narrow application or ecosystem coverage
System integrator	Tooling, process, layout, interfaces and risk reduction	Operating cobot cell	Capability may vary significantly by application
Ready-to-deploy solution provider	Pre-engineered arm, tooling and software package	Welding, palletizing or machine-tending package	“Ready” may still require local validation
Distributor	Product sales, stock, support and logistics	Third-party cobot products	Limited control over product roadmap and engineering
ODM/private-label manufacturer	Robot development and production for another brand	Customized or rebranded cobot	IP, firmware and exclusivity ambiguity
Component and ecosystem supplier	Grippers, vision, sensors, software or safety equipment	Cobot-compatible components	Compatibility does not prove application suitability
Mobile cobot supplier	Arm mounted on an AMR or mobile base	Mobile manipulation system	Combined navigation, stability and safety complexity

Required conclusion: The commercial label “cobot supplier” does not establish which party owns the robot, integration, process, safety validation or lifecycle support.

Cobots in Manufacturing

Direct answer: Cobots are generally most useful where the process requires flexible deployment, frequent changeovers, moderate throughput, operator interaction or automation of tasks that do not justify a permanently fenced high-speed cell.

They are not automatically the best choice for every low-volume process. Cycle time, payload, reach, tool hazards, risk controls and integration effort still determine whether a cobot is economically and technically appropriate.

Machine Tending

CNC, press and moulding tending with machine interfaces.

Welding

Arc and laser welding with process-equipment integration.

Assembly

Screwdriving, insertion, press fitting and adhesives.

Pick-and-Place

Handling, case packing, sorting and packaging.

Palletizing

Stacking, reach, cycle time and falling-load hazards.

Finishing

Sanding, polishing, deburring and force compliance.

Inspection

Camera movement, gauge loading and data capture.

Mobile Collaborative

Arm on AMR with docking and work-zone safety.

Machine tending

Cover CNC loading and unloading, press and injection-moulding tending, door and chuck interfaces, part orientation, gripper and fixture design, machine communication, and unattended production limits. Official cobot portfolios commonly identify machine tending as a major application.

Welding

Cover arc and laser welding, welding power source integration, torch and cable management, path accuracy, fixtures, fume extraction, process hazards, and when fencing or other safeguards remain necessary. Welding is a visible commercial query and appears in active cobot application portfolios.

Assembly and fastening

Cover screwdriving, insertion, press fitting, adhesive application, force control, part presentation and quality confirmation.

Pick-and-place and packaging

Cover product handling, case packing, sorting, packaging, conveyor tracking, vision and gripper selection.

Palletizing

Cover payload at full reach, stacking height, lifting columns or seventh axes, cycle time, pallet detection, and guarding around falling-load hazards.

Finishing and process tasks

Cover sanding, polishing, deburring, grinding, dispensing, surface finishing, force compliance, and dust and tool hazards.

Inspection and testing

Cover camera and sensor movement, gauge loading, electrical testing, data capture, repeatable positioning and software integration.

Mobile collaborative applications

Cover a cobot mounted on an AMR, stability and payload, docking accuracy, fleet management, navigation, work-zone safety and combined system responsibility.

Cobot Versus Conventional Industrial Robot

Dimension	Collaborative robot platform	Conventional industrial robot
Typical design priority	Accessibility, flexibility and interaction	Speed, payload and throughput
Workspace model	May support shared-space operation	Usually separated or safeguarded
Deployment	Often compact and reconfigurable	Often fixed and application-specific
Programming	Frequently simplified or graphical	Commonly specialist programming
Speed	Often constrained during collaborative operation	Generally higher
Payload and inertia	Commonly lower, though ranges are expanding	Broad, including very high payload
Integration	Can be simpler for suitable tasks	More engineering but higher performance ceiling
Safety	Determined by completed application	Determined by completed application
Best fit	Flexible, high-mix and operator-adjacent processes	High-speed, high-volume or hazardous processes

Required answer: A cobot should not be selected merely because the buyer wants to avoid a fence.

Choose between collaborative and conventional automation using the required cycle time, payload, process hazards, operator interaction, changeover needs and total deployed cost.

IFR states that cobots complement rather than replace conventional industrial robots, which generally remain important for higher-speed productivity. For conventional platforms see industrial robot manufacturers and suppliers.

How Does a Collaborative Robot Application Work?

Explain the three collaborative technologies emphasized in the revised US safety framework. A3 identifies these three technologies in its explanation of the revised 2025 standard.

Hand guiding

The operator intentionally guides the robot using an enabling or hand-guiding device.

Speed and separation monitoring

The system monitors distance between people and the robot and changes speed or stops based on separation.

Power and force limiting

The robot and application are designed and controlled to limit forces and pressures during contact.

Standards migration note: ISO/TS 15066:2016 remains published and provides collaborative-system and work-environment guidance, including biomechanical force and pressure material. ISO is developing a replacement structure, including ISO/AWI 15066-1. Cursor and buyers must confirm the status immediately before publication and avoid presenting a draft standard as published law or mandatory certification. ISO continues to list ISO/TS 15066:2016, while ISO/AWI 15066-1 is under development.

Representative Cobot Manufacturers

The companies below are representative manufacturers with active collaborative robot products or portfolios. Inclusion is not a ranking, endorsement or confirmation that a supplier is suitable for a particular project.

Company	Headquarters	Company model	Evidence status	Last verified
Universal Robots	Denmark	Cobot OEM	Company-reported	July 2026
ABB	Switzerland	Industrial OEM with cobot portfolio	Company-reported	July 2026
FANUC	Japan	Industrial OEM with cobot portfolio	Company-reported	July 2026
Yaskawa Motoman	Japan	Industrial OEM with cobot portfolio	Company-reported	July 2026
KUKA	Germany	Industrial OEM with cobot portfolio	Company-reported	July 2026
Doosan Robotics	South Korea	Cobot OEM	Company-reported	July 2026
Techman Robot	Taiwan	Cobot OEM	Company-reported	July 2026
DENSO	Japan	Industrial OEM / compact robots	Company-reported	July 2026
Omron	Japan	OEM / automation ecosystem	Company-reported	July 2026
DOBOT	China	Cobot OEM	Company-reported	July 2026
JAKA Robotics	China	Cobot OEM	Company-reported	July 2026
AUBO Robotics	China	Cobot OEM	Company-reported	July 2026
Elite Robots	China	Cobot OEM	Company-reported	July 2026
Han’s Robot	China	Cobot OEM	Company-reported	July 2026
ROKAE	China	Industrial / cobot OEM	Company-reported	July 2026
FAIRINO	China	Cobot OEM	Company-reported	July 2026

Universal Robots

Model: Cobot OEM
Evidence: Company-reported
Last verified: July 2026

DOBOT

Model: Cobot OEM
Evidence: Company-reported
Last verified: July 2026

JAKA Robotics

Model: Cobot OEM
Evidence: Company-reported
Last verified: July 2026

AUBO Robotics

Model: Cobot OEM
Evidence: Company-reported
Last verified: July 2026

Official portfolios confirm active cobot offerings from Universal Robots, ABB and FANUC. Current official Chinese manufacturer sources show collaborative robot portfolios from DOBOT, JAKA, AUBO and Elite Robots. For deeper China landscape analysis, see Chinese robotics companies and manufacturers.

Verify current cobot series, payload/reach, force/torque sensing, programming environment, ecosystem, integration support and manufacturing locations on official product pages before RFQ. Evidence labels: Verified through primary documentation; Company-reported; Supported by independent evidence; Not confirmed; Not disclosed.

How to Evaluate a Cobot Manufacturer or Supplier

This should be the most detailed section. Compare candidates against the same technical, manufacturing, application, commercial and evidence framework rather than by arm price or catalogue payload alone.

Application fit

Task and process, workpiece, payload and tool weight
Reach, orientation, cycle time and duty cycle
Human interaction, changeover frequency and production volume
Workspace and environmental conditions

Payload, reach and inertia

Rated payload and payload at required reach
Tool, cable and workpiece weight
Wrist moment and inertia limits, centre of gravity
Dynamic motion limits and mounting orientation

Do not compare rated payload alone.

Speed and productivity

Maximum joint speed and collaborative operating speed
Cycle time under actual safety controls
Acceleration, settling time and path performance
Payload-related derating and continuous duty limits

The relevant figure is the validated process cycle time, not the robot’s brochure maximum speed.

Force and sensing architecture

Joint torque sensing; base or wrist force/torque sensing
External sensor support and collision detection
Sensitivity settings, stopping behaviour and force-control functions
Calibration and sensor diagnostics

Safety functions and validation

Safety-rated monitored functions, speed and workspace limits
Force and power controls, safety I/O and stopping performance
Protective stop behaviour and restart conditions
Validation documentation and applicable certificates

Programming and integration

Graphical programming, hand-guiding interface and language
Offline programming, simulation, SDK and API
PLC, fieldbus and vision integration
Remote access, program backup and version control

Tool and component ecosystem

Grippers, vacuum tools, welding packages and screwdrivers
Vision systems, force sensors and safety scanners
Linear axes, palletizing columns and mobile bases
Approved software packages

Universal Robots explicitly describes its arm as a platform requiring application-specific tools and maintains an integration marketplace, illustrating why ecosystem depth is a separate evaluation dimension.

Manufacturing capability

Production location; owned and outsourced processes
Assembly controls, calibration systems and end-of-line testing
Life-cycle testing, traceability and critical-component sourcing
Capacity evidence, engineering-change control and failure analysis

Quality and reliability

Quality-management system and incoming inspection
Process controls, calibration records and repeatability testing
Safety-function testing and field reliability data
Warranty returns, corrective actions and software-version control

Lifecycle and support

Warranty, spare parts, repair process and remote diagnosis
Training, integrator availability and local service
Software and cybersecurity updates
Product lifecycle, backward compatibility and end-of-life notice

Collaborative Robot Safety and Compliance

Robot-arm safety features

ISO 10218-1:2025 — industrial robots as partly completed machinery
Safety-rated monitored functions on the arm and controller
Manufacturer responsibility within defined product scope

Safe collaborative application

ISO 10218-2:2025 — applications and cells
Tooling, workpiece, layout and human interaction
Integrator or completed-system validation responsibility

Required distinction: Robot-arm safety features ≠ safe collaborative application.

ISO 10218-1:2025 addresses industrial robots as partly completed machinery. ISO 10218-2:2025 addresses robot applications and cells, including integration, commissioning, operation and maintenance.

Safety assessment scope

Robot motion; end effector; workpiece; fixtures; nearby machines; crushing and trapping points; sharp or hot surfaces; process emissions; falling loads; operator tasks; maintenance tasks; foreseeable misuse; software and communications.

Standards and references

ISO 10218-1:2025 — Industrial robots
ISO 10218-2:2025 — Industrial robot applications and cells
ISO/TS 15066:2016 — Collaborative robot systems and work environment
ISO/PAS 5672:2023 — Test methods for forces and pressures in human–robot contact
ISO 13849-1 — Safety-related control systems, where applicable
Destination-market machinery, electrical, EMC, radio and cybersecurity rules

ISO lists ISO/PAS 5672:2023 among current collaborative-application test references. ISO/TS 15066:2016 remains a published technical specification; do not describe the evolving ISO 15066 replacement as final.

EU-bound projects: For projects intended for the EU, establish expected market-entry date; product versus completed-system responsibilities; technical-file ownership; declaration and marking responsibility; importer or authorised-representative responsibilities; and transition to Regulation (EU) 2023/1230. The EU Machinery Regulation generally applies from 20 January 2027.

Editorial constraint: Do not say cobots do not need cages; cobots are inherently safe; a certified cobot makes the application compliant; or power and force limiting eliminates the need for risk assessment. A3 states that end users and integrators must assess the complete application, even when the robot itself is designed for collaborative use.

What Does a Cobot System Cost?

Do not publish unsupported generic price ranges. Explain total deployed cost.

Total Deployed Cost (TDC)

Robot arm and controller
End effector, vision and sensors
Safety equipment and fixtures
Application engineering and programming
Machine interfaces, installation and validation
Training, maintenance, software licences and spare parts
Downtime and changeover

TDC = Sum of all deployed components and services

How Should Cobot ROI Be Calculated?

Annual benefit

Labour time released
+ Additional production capacity
+ Reduced defects and rework
+ Reduced ergonomic exposure
+ Longer machine utilisation
+ Faster changeover
− Operating and support cost

Payback period = Total deployed investment / Net annual benefit

Required cautions: Do not value all released labour as immediate cash savings. Include operator loading and supervision that remain. Use validated cycle times. Include expected utilisation. Include integration and commissioning. Model product mix and changeovers. Separate productivity improvement from headcount reduction. Typical published payback ranges such as 6–18 months are illustrative only and must not be treated as guaranteed outcomes for a specific project.

What Evidence Should a Cobot Supplier Provide?

Product evidence

Technical datasheet
Payload and reach diagrams
Moment and inertia limits
Repeatability test conditions
Stopping-performance information
Safety-function description
Environmental ratings
Controller, software and protocol documentation

Application evidence

Process description and cycle-time study
Tooling concept and risk-assessment inputs
Safety concept and simulation
Interface specification
Validation plan and acceptance criteria

Manufacturing evidence

Manufacturing-site identity and process flow
Critical-component list
Calibration system and end-of-line test
Traceability and engineering-change procedure
Quality documentation

Lifecycle evidence

Warranty and spare-parts policy
Software-update and cybersecurity process
Repair procedure and integrator network
Service response
Lifecycle and discontinuation policy
Reliability evidence

Verified through primary documentation Company-reported Supported by independent evidence Not confirmed Not disclosed

Sourcing Cobot Manufacturers in China

China has multiple cobot-focused OEMs and broader robot manufacturers. Buyers should distinguish OEMs from distributors and integrators; evaluate controller, sensing, software and critical-component ownership; confirm production and calibration evidence; review documentation for the destination market; evaluate overseas integrator and service coverage; avoid selecting primarily by quoted arm price; and confirm firmware, SDK and data access.

Current official product sources show active collaborative robot portfolios from DOBOT, JAKA, AUBO and Elite Robots. For company models, clusters and verification requirements beyond this page, use the dedicated China landscape guide rather than duplicating its full company table here.

Explore Chinese Robotics Companies and Manufacturers

Common Risks When Selecting Cobot Manufacturers

Risk	What must be verified
Cobot assumed to be inherently safe	Complete application risk assessment and validation
Arm selected before process definition	Real payload, cycle, reach and process requirements
Maximum speed used for ROI	Validated speed under required safety controls
Payload excludes tooling	Tool, cables, workpiece and centre of gravity
Integrator capability assumed from OEM brand	Application-specific engineering references
Ecosystem component assumed compatible	Mechanical, electrical, software and safety interfaces
Demo mistaken for production readiness	Sustained cycle testing and deployed references
Force limits accepted without testing	Contact scenarios, body regions and measurement method
Hazardous tooling overlooked	Sharp, hot, heavy, powered or process-related tool risks
Software lock-in	Program ownership, licence and backup access
Weak local service	Integrator availability, response time and spare parts
Low arm price hides system cost	Full deployed cost and commissioning
Silent component changes	Engineering-change and customer-notification procedure
Certificate used outside scope	Exact product, standard, edition and application

Overstated Capabilities

Arm features presented as completed-application performance.

Safety Non-compliance

Missing risk assessment for tooling, workpiece and workspace.

Integration Complexity

OEM brand assumed to guarantee integrator skill.

Limited Support

No local service, spare parts or update pathway.

Ecosystem Lock-in

Tooling and software rights poorly defined.

Supply Chain Risk

Critical components single-sourced without notification controls.

Information to Prepare Before Contacting Cobot Suppliers

Application requirements

Application and process description
Workpiece, payload, tool weight and required reach
Orientation, cycle time, duty cycle and production volume
Changeover frequency and human interaction
Operating environment, floor space and mounting position

Safety and integration requirements

Expected collaborative tasks and operator access
Contact scenarios and process hazards
Machine interfaces, PLC, fieldbus and vision
Safety scanners, end effector, fixtures and software interfaces
Data requirements

Commercial requirements

Evaluation quantity and expected production quantity
Target deployment date and destination country
Installation support, commissioning and training
Warranty, service response, spare-parts package and software licences
Lifecycle expectation

Use the Cobot Supplier RFQ Checklist above as crawlable HTML before outreach. It is a static checklist, not an online RFQ platform.

Yana’s Cobot Supplier Qualification Process

Yana begins with the process, workpiece, human interaction, payload, reach, cycle time, safety and integration requirements. Cobot manufacturers and integrators are then compared using the same technical, manufacturing, application, commercial and evidence framework rather than by arm price or catalogue payload alone.

Application and Requirement Definition

Lock process, human interaction, payload, reach, cycle and safety needs.

Collaborative-Technology and Supplier-Model Selection

Choose PFL, SSM, hand guiding and OEM/integrator/solution fit.

Manufacturer Landscape Mapping

Map OEMs, specialists and integrators before shortlisting names.

Technical and Commercial RFQ

Request payload/inertia, safety functions, ecosystem and terms.

Manufacturer and Integrator Capability Assessment

Review production evidence and application-engineering references.

Application, Safety and Cycle-Time Validation

Validate contact scenarios, safeguards and real cycle time.

Supplier Recommendation and Risk Review

Document residual risks, ownership and lifecycle commitments.

Discuss a Cobot Automation Requirement

Frequently Asked Questions

What is a cobot?

A cobot is the common market term for an industrial robot designed with technologies that can support collaborative applications where people and robots share a workspace. The arm alone does not make the application collaborative or safe. See What Is a Cobot?.

What is a collaborative robot?

Collaborative robot is the formal term for industrial robots intended for collaborative use. Safety engineering should identify specific collaborative technologies—hand guiding, speed and separation monitoring, and power and force limiting—rather than treating “cobot” as one uniform machine category. See collaborative technologies.

Who are the main cobot manufacturers?

There is no sourcing-useful ranking. Active portfolios include Universal Robots, ABB, FANUC, Yaskawa Motoman, KUKA, Doosan Robotics, Techman Robot and Chinese OEMs such as DOBOT, JAKA, AUBO and Elite Robots. Selection should follow application fit and evidence. See the representative landscape.

What is the difference between a cobot and an industrial robot?

A cobot is still an industrial robot. Conventional industrial robots typically prioritise speed, payload and safeguarded cells; collaborative platforms prioritise accessibility, flexibility and interaction. Safety for both is determined by the completed application. See Cobot Versus Conventional Industrial Robot.

Are cobots safe?

No cobot is inherently safe. Safety depends on the complete application, including the end effector, workpiece, motion, layout and human interaction. Risk assessment and validation remain required even when the robot is designed for collaborative use. See Collaborative Robot Safety and Compliance.

Do cobots need safety fencing?

Not automatically—and not never. Some collaborative applications can operate without fixed fencing when validated safeguards and collaborative technologies are appropriate. Process hazards, tooling, falling loads and cycle-time needs may still require fencing or other safeguards. Do not select a cobot merely to avoid a fence.

What manufacturing applications are suitable for cobots?

Common fits include machine tending, welding packages, assembly, pick-and-place, packaging, palletizing, finishing and inspection, plus some mobile collaborative applications. Suitability depends on cycle time, payload, hazards and changeover needs. See Cobots in Manufacturing.

How do I choose a cobot manufacturer?

Define the process and human interaction first, then evaluate payload at reach with inertia, validated cycle time under safety controls, sensing architecture, safety functions, programming, ecosystem, manufacturing evidence and lifecycle support. See How to Evaluate a Cobot Manufacturer or Supplier.

What should I ask a collaborative robot supplier?

Ask who owns the arm, integration, process and safety validation; request payload/inertia diagrams, stopping performance, safety-function documentation, application references, manufacturing evidence, software rights and service commitments. Use the RFQ checklist.

How much weight can a cobot carry?

Payload is product-specific and must include tool, cables and workpiece, then be checked against wrist moment, inertia and payload at the required reach. Rated payload alone is not enough. Request current portfolio data for the exact model under consideration.

How is cobot ROI calculated?

Calculate total deployed investment, then divide by net annual benefit from labour time released, capacity, quality, ergonomics, utilisation and changeover, minus operating cost. Use validated cycle times and do not treat all released labour as immediate cash. See cost and ROI.

What does a complete cobot system cost?

Total deployed cost includes the arm and controller, end effector, vision, safety equipment, fixtures, engineering, programming, interfaces, installation, validation, training, maintenance, licences and spare parts. Do not compare arm price alone. See What Does a Cobot System Cost?.

What standards apply to collaborative robot applications?

ISO 10218-1:2025 and ISO 10218-2:2025 address robots and applications/cells. ISO/TS 15066:2016 provides collaborative-system guidance. ISO/PAS 5672:2023 covers force and pressure test methods. Destination-market machinery rules also apply. Confirm edition years before use.

Who is responsible for validating a collaborative robot system?

The robot manufacturer is responsible for the robot product within its defined scope. The integrator or completed-system manufacturer normally carries responsibility for the application, tooling, layout and risk assessment under ISO 10218-2:2025. End users retain application-specific obligations. See safety and compliance.

Are Chinese cobot manufacturers reliable?

Reliability is product-specific. It depends on design ownership, sensing and software quality, manufacturing control, validation and field support. No national origin guarantees or disproves reliability. Require evidence for the exact product. Continue in the China landscape guide.

How do I source a cobot from China?

Start from application and supplier-model requirements, then distinguish OEMs, distributors and integrators. Verify controller, sensing, software and component ownership; confirm production evidence, destination-market documentation and overseas support. Avoid selecting primarily by arm price. See Sourcing Cobot Manufacturers in China.

Evaluating a Cobot Manufacturer or Application?

Share the process, payload, reach, cycle-time target, human interaction, tooling, operating environment, expected volume and destination market. Yana can help define the collaborative automation requirement, map relevant manufacturers and integrators, and structure the technical, safety and supplier-qualification process.

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