Market Size (2021)
$15.49B
Vertical: SEMIBase Year: 202110 Sections
Market Size (2021)
$15.49B
Projected (2030)
$42.59B
CAGR (2018–2030)
9.0%
Key Players
16+
The market for robotic arms is expected to continue growing in the future, driven by factors such as increasing demand for automation in various industries and the growing adoption of collaborative robots (cobots) that can work alongside humans. The automotive industry has traditionally been a major user of robotic arms for tasks such as welding, painting, and assembly. However, the use of robotic arms is expanding to other industries such as healthcare, food and beverage, and electronics, where they are being used for tasks such as material handling, packaging, and inspection. With the advancement of technologies such as artificial intelligence, machine learning, and computer vision, robotic arms are becoming more versatile and capable of performing a wider range of tasks. In addition, the growing demand for collaborative robots (cobots) is expected to drive the growth of the robotic arms market. Unlike traditional robots that are designed to work autonomously, cobots are designed to work alongside humans, with sensors and safety features that enable them to operate safely in close proximity to humans. Cobots are being increasingly used in industries such as manufacturing, healthcare, and logistics, where they can help improve productivity and reduce the risk of workplace injuries.
As per Wantstats, the Global Robotic Arms Market has been growing significantly over the past few years. It is expected to reach USD 42,587.4 million by 2030, at a CAGR of 12.8% during the forecast period, 2022–2030.
The global Robotic Arms Market is expected to grow at 12.8% CAGR during the forecast period, 2022-2030. In 2021, the market was led by Asia-Pacific with 55.21% share, followed by Europe and the North America with shares of 23.53% and 18.23%, respectively. The high demand for Robotic Arms in Automotive, Electrical and Electronics, Food and Beverages, Manufacturing, and Agriculture sector is aiding the market growth in the Asia Pacific region.
The Global Robotic Arms Market has been segmented based on type, payload capacity, axes, application, vertical, and region. The type segment is again bifurcated into Articulated, Cartesian, SCARA, Spherical or Polar, Cylindrical, and Delta. By TYPE segment, articulated accounted for the largest market share with a market value of USD 9,362.8 million in 2021, which is projected to grow at a CAGR of 12.6% during the forecast period. Based on the payload capacity, less than 500 Kg accounted for the largest market share with a market value of USD 10,768.7 million in 2021 and is projected to grow at a CAGR of 12.5%. Based on Axis, 6-Axis accounted for the largest market share with a market value of USD 8,644.8 million in 2021, which is projected to grow at the CAGR of 13.2% during the forecasted period. Based on Application, Materials Handling & Transportation accounted for the largest market share with a market value of USD 5,717.9 million in 2021, which is projected to grow at a CAGR of 12.5% during the forecasted period. Based on Vertical, Automotive accounted for the largest market share with a market value of USD 3,478.0 million in 2021, which is projected to grow at a CAGR of 11.8% during the forecasted period.
The Robotic Arms Market market is projected to grow at a CAGR of 9.0% from 2018 to 2030.
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View Subscription PlansRobotic Arms Market
Historical performance and future projections (2020–2030, USD Billion)
Market Size (USD Mn)
Robotic arms are devices designed to replicate the movement and functionality of a human arm. They typically consist of a series of rigid links or segments connected by joints, which are powered by motors and controlled by a computer or programmable logic controller (PLC). Robotic arms are capable of performing a variety of tasks, including manipulating objects, performing assembly tasks, welding, painting, and even performing surgical procedures. They can be programmed to follow a predetermined path, respond to external sensors or feedback, or be operated manually by a human operator using a controller or a set of buttons. Robotic arms have found applications in various industries, including manufacturing, healthcare, agriculture, and space exploration.
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View Subscription PlansThis report applies a rigorous multi-stage research process combining primary interviews, secondary data sources, and bottom-up market modelling to ensure accuracy and completeness across all segments and geographies.
Base Year
2021
Historical Period
2018 – 2020
Forecast Period
2022 – 2030
Primary Interviews
150+
Historical data (2018–2021) and forecast period (2021–2030)
Our research process spans primary interviews with industry stakeholders combined with comprehensive secondary data analysis, validated through triangulation across multiple independent sources.
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View Subscription PlansThe global robotics arms market has witnessed significant growth over the forecast period due to several factors. The increasing demand for automation in manufacturing processes has been a major driving force for the growth of the robotics arms market. Robotics arms are highly efficient and can perform tasks with high precision, speed, and consistency, which makes them ideal for use in manufacturing and assembly lines. Robotics technology has advanced significantly in recent years, leading to the development of more advanced and sophisticated robotics arms. These advancements have improved the capabilities of robotics arms, such as their ability to handle complex tasks and work in diverse environments, which has led to an increase in their adoption across various industries.
Furthermore, robotics arms are becoming increasingly affordable, which has made them accessible to small and medium-sized businesses. This has led to an increase in the adoption of robotics arms in various industries, such as healthcare, automotive, and electronics. Robotics arms have helped to improve workplace safety by taking over dangerous and repetitive tasks, reducing the risk of injury to human workers. Additionally, robotics arms have been designed to be ergonomically friendly, reducing the strain on human workers and improving their overall well-being.
There are several players operating in the global robotics arms market who continuously strive to gain a significant share of the overall market. During the study, Wantstats has analyzed some of the major players in the global robotics arms market who have contributed to the market growth. These include ABB, Yaskawa Electric Corporation, Kuka AG, Fanuc Corporation, Kawasaki Heavy Industries, Ltd., Mitsubishi Electric Corporation, Denso Wave Incorporated., Rockwell Automation, Inc., Nachi-Fujikoshi Corp, Universal Robots, Omron Corporation, Seiko Epson Corporation, Flexiv, Asimov Robotics, Gridbots Technologies Private Limited, and Dobot.cc.
Among these, ABB Ltd., FANUC Robotics, Kuka AG, Yaskawa Electric Corporation, and Kawasaki Heavy Industries are among the top 5 players in global Robotics arms market. These players focus on expanding and enhancing their product portfolio and services to remain competitive and increase their customer base. Additionally, these players are focusing on partnerships & collaborations to expand their business and customer base to enhance their market position.
ABB Ltd is focused on four key strategic pillars that guide the company's operations. The first is digital transformation, which involves driving digitalization across industries. ABB has invested heavily in developing digital solutions that help customers improve productivity and optimize operations. This strategy enables ABB to provide customers with innovative solutions that leverage the latest technologies and enable them to stay ahead of the competition. The second pillar is customer focus, which involves understanding customer needs and providing tailored solutions that meet those needs. ABB has a deep understanding of the industries it serves and works closely with customers to deliver solutions that improve their operations and drive growth. The third pillar is operational excellence, which involves continuously improving processes and driving efficiencies. ABB has implemented a number of initiatives to improve efficiency across the company, including standardizing processes and streamlining operations. The fourth and final pillar is sustainability, which is a key priority for ABB. The company is committed to reducing its environmental impact and helping customers do the same through its sustainable solutions. This strategy has helped ABB build a strong reputation as a socially responsible company that is committed to creating a better future for all.
Fanuc Corporation aims to increase its sales with the help of organic and inorganic strategies. The company emphasizes expanding its product portfolio and marketing its services to obtain a competitive advantage. It focuses on acquisitions and mergers to expand its geographic reach and technical expertise. Furthermore, the company also focuses on maintaining a healthy relationship with its channel partners to enhance the accessibility of its product and services to the market.
KUKA AG is committed to driving innovation in the field of industrial robotics and automation. The company invests heavily in research and development to stay ahead of the curve and bring new products and solutions to market. The company places a strong emphasis on understanding its customers' needs and delivering solutions that meet those needs. The company works closely with customers to identify pain points and develop tailored solutions that improve productivity and efficiency. The company is focused on leveraging the latest digital technologies to improve its products and services. The company has developed a range of software solutions that help customers optimize their operations and improve performance.
Yaskawa aims to contribute to societal growth and human well-being by developing and improving world-class technology, with a focus to maximize quality improve managerial and operational efficiency to attain the returns required for the company's successful expansion. As a customer-centric firm, the company continuously strives to meet the market's needs and serve customers. In addition to its focus on developing world-class technology and maximizing quality and efficiency, Yaskawa also places a strong emphasis on sustainability and corporate social responsibility. The company is committed to reducing its environmental impact and promoting sustainable practices in all aspects of its operations. Yaskawa also places a high value on its employees and their well-being. The company promotes a culture of respect, trust, and teamwork, and offers training and development programs to help employees grow and succeed. Yaskawa also prioritizes diversity and inclusion, recognizing that a diverse workforce is essential to its success. Furthermore, Yaskawa believes in fostering strong partnerships with its customers and suppliers. The company works closely with customers to understand their needs and provide tailored solutions that meet those needs. Yaskawa also works with suppliers to ensure that they meet the company's high standards for quality, environmental sustainability, and social responsibility.
Kawasaki Heavy Industries places a strong emphasis on research and development to stay ahead of the curve and bring new products and solutions to market. The company has a dedicated team of engineers focused on robotics and automation and has developed a range of cutting-edge technologies to improve the efficiency and productivity of manufacturing processes. Another key strategy for Kawasaki Heavy Industries is quality. The company has implemented strict quality control measures to ensure that its products meet the highest standards. Kawasaki Heavy Industries places a strong emphasis on safety as well and has a commitment to workplace safety and environmental stewardship. Kawasaki Heavy Industries also places a strong emphasis on customer focus. The company works closely with customers to understand their needs and develop tailored solutions that improve productivity and efficiency. The company's global presence allows it to provide localized support and expertise to customers around the world. The company is committed to sustainability. The company focuses on developing energy-efficient solutions and reducing its environmental impact. Kawasaki Heavy Industries is also involved in a range of initiatives aimed at promoting sustainability in the communities where it operates.
Threat of New Entrants
The robotic arms market is characterized by high entry barriers, making it difficult for new entrants to establish themselves. Developing robotic arms requires significant investment in R&D, manufacturing, and marketing. R&D expenses can be particularly high since robotic arms involve complex technologies and require continuous innovation to stay ahead of the competition. Additionally, manufacturing robotic arms requires specialized equipment, skilled labor, and access to raw materials, which can be expensive.
Furthermore, established players in the market have significant brand recognition and a loyal customer base, which gives them a competitive advantage over new entrants. Customers in industries such as manufacturing and healthcare often rely on established brands with a track record of delivering reliable and high-quality products. New entrants may struggle to gain customers' trust and compete with established players' brand recognition and market share.
Bargaining Power of Suppliers
Suppliers provide components and materials used to manufacture robotic arms in the robotic arms market. These include electronic components, motors, sensors, and other mechanical parts. The bargaining power of suppliers is low for several reasons.
Firstly, there are many suppliers of components and materials used in manufacturing robotic arms, and they are not highly differentiated. This means that manufacturers have a wide range of options to choose from when selecting suppliers, and they can easily switch to alternative suppliers if one supplier raises their prices or fails to meet their quality standards. This puts pressure on suppliers to keep their prices competitive and maintain the quality of their products.
Secondly, there are many manufacturers of robotic arms, which gives them significant bargaining power over suppliers. Manufacturers can leverage their purchasing power to negotiate favorable prices and terms with suppliers. Suppliers rely on manufacturers to purchase their products and are motivated to maintain long-term relationships with them.
Additionally, the demand for components and materials used in manufacturing robotic arms is high, which gives manufacturers further bargaining power. Suppliers are aware of the high demand for their products, which means they are less likely to risk losing business by increasing their prices or changing their terms.
In conclusion, the bargaining power of suppliers in the robotic arms market is low. This is because many suppliers of components and materials are used in manufacturing robotic arms, and they are not highly differentiated. Additionally, there are many manufacturers of robotic arms, and suppliers do not have much bargaining power over them. The high demand for components and materials used in the manufacture of robotic arms also gives manufacturers further bargaining power over suppliers.
Threat of Substitutes
The robotic arms market faces a low threat of substitutes as robotic arms have unique capabilities that other technologies cannot easily replicate. While manual labor may be an alternative in some cases, it is not as efficient, accurate, or safe as robotic arms. However, the cost of substituting robotic arms with other technologies is often high. Replacing robotic arms with manual labor would require significant training, equipment, and infrastructure investment. This makes it less feasible for businesses to opt for substitutes.
Bargaining Power of Buyers
Buyers in the robotic arms market hold a high bargaining power due to several factors. Firstly, many robotic arms suppliers are available in the market, giving buyers a wide range of options. This abundance of suppliers allows buyers to compare prices, features, and quality to get the best deal. Furthermore, buyers in industries such as manufacturing and healthcare are often price-sensitive, and they have the power to negotiate prices with suppliers. These industries typically have large purchasing volumes, and as a result, their buying power is significant. They can negotiate favorable pricing, payment terms, and conditions with suppliers. In conclusion, the bargaining power of buyers in the robotic arms market is high due to the abundance of suppliers, price sensitivity in industries such as manufacturing and healthcare, and the availability of substitutes. These factors allow buyers to negotiate favorable prices and terms with suppliers, and suppliers are motivated to maintain long-term relationships with their customers to retain their business.
Intensity of Rivalry
The robotic arms market experiences high competitive rivalry due to many established players, such as ABB, Fanuc, KUKA, and Yaskawa, who have significant market share. Moreover, new entrants are also competing on price, quality, and innovation, intensifying the competition in the market. The intense competition in the market drives innovation and improvement in product quality, leading to the development of more advanced and efficient robotic arms. This competition also pressures companies to differentiate themselves from their competitors, leading to the development of unique features and services.
Market estimates by geography (2030)
InsightAsia Pacific leads with $24.55B by 2030.
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View Subscription Plans| REGION | 2018 | 2021 | 2030 | CAGR | SHARE |
|---|---|---|---|---|---|
| North America | $2.74B | $3.37B | $7.26B | 8.5% | 17% |
| Europe | $3.55B | $4.38B | $9.65B | 8.7% | 23% |
| Asia Pacific | $8.46B | $10.49B | $24.55B | 9.3% | 58% |
| Middle East and Africa | $302.80M | $369.40M | $775.30M | 8.1% | 2% |
| South America | $150.10M | $179.70M | $348.50M | 7.3% | 1% |
| Total | $15.21B | $18.78B | $42.59B | 9.0% | 100% |
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View Subscription PlansTotal Market Size
$42.59B
| APPLICATION | REVENUE ($B) | GROWTH RATE | MARKET PENETRATION |
|---|---|---|---|
| Articulated | $25.47B | 8.8% | 60% |
| SCARA | $6.51B | 10.2% | 15% |
| Cartesian | $6.45B | 8.0% | 15% |
| Spherical or Polar | $2.13B | 9.6% | 5% |
| Cylindrical | $1.24B | 9.6% | 3% |
| Delta | $787.60M | 9.6% | 2% |
* Revenue projections based on 2025 estimates. Growth rates represent CAGR 2024–2030. Market penetration indicates current adoption rate within addressable market segments.
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Analytical insights on Robotic Arms Market covering market dynamics, competitive landscape, and strategic outlook.
The Robotic Arms Market market is projected to reach $42.59B by 2030, growing at 9.0% CAGR. The Articulated segment holds the largest share.
The global Robotic Arms Market is growing substantially and is expected to maintain its growth pace over the forecast period. The Robotic Arms Market is driven by factors including Rapid automation across the production facilities, Rising demand for robotics among the warehouses to streamline the processes, Shortage of skilled labors propelling the demand for advanced robots, Growing complexity of manufacturing processes, and Advancement of Robotic Arms in Healthcare Industry. High cost of the product, and Lack of skilled labor will restraint the markets growth during the forecasted period. Development of heavy payload robotic arms, Rapid technological advancements, and Industry 4.0 is expected to open lucrative opportunities for the market growth. However, Integration with existing systems and Safety concerns is expected to be challanging factor for the markets growth.
Rapid automation across production facilities is a major driver for the robotic arms market. As companies seek to improve their productivity, reduce costs, and increase quality, they are turning to automation solutions, such as robotic arms, to meet their needs. One of the key advantages of robotic arms is their ability to perform repetitive tasks with high accuracy and consistency, which is crucial in many production environments. By automating these tasks, companies can reduce errors, improve quality, and increase throughput. This is particularly important in industries such as automotive, electronics, and pharmaceuticals, where high volumes of parts or products need to be produced quickly and precisely.
Moreover, robotic arms are also versatile, able to perform a wide range of tasks and work in various environments. They can be programmed to adapt to changes in production requirements, allowing companies to quickly respond to shifting market demands. This flexibility is particularly important in industries such as food and beverage, where production requirements can vary significantly based on seasonality and consumer preferences. Additionally, the adoption of robotic arms has been driven by advancements in technology, such as artificial intelligence and machine learning. These technologies have enabled robots to perform more complex tasks and operate in collaborative settings alongside human workers, opening up new possibilities for automation across industries. New generations of robots that are smaller and more affordable are being developed with the aim of easing implementation. ABB’s SWIFTI and Universal Robots’ cobots are good affordable solutions for small and medium-sized enterprises.
Furthermore, advances in robotics technology have made robotic arms more user-friendly and easier to integrate with existing manufacturing systems, which has lowered the barrier to entry for companies looking to adopt robotic automation. The global market for industrial robotic arms is expected to continue to grow rapidly in during the forecasted years, driven by increasing demand from industries such as automotive, electronics, and food and beverage, among others. As technology continues to advance and costs continue to decrease, companies can expect to see even more widespread adoption of robotic arms in the manufacturing industry.
The development of heavy payload robotic arms presents a significant opportunity for the robotic arms market. Heavy payload robotic arms are designed to carry and manipulate objects with substantial weight, typically in industrial applications. With the rise of automation and the need for increased productivity and efficiency in manufacturing, the demand for heavy payload robotic arms has been steadily growing. The use of heavy payload robotic arms has several advantages over traditional methods of heavy lifting and material handling. These robotic arms can work around the clock without getting tired, require minimal maintenance, and can be programmed to perform tasks with high precision and accuracy, leading to increased productivity and reduced human error.
Considering the example of Yaskawa’s GP line of robots, which include compact and highly-efficient robots. Operated by the new Motoman YRC1000 high-performance controller, the robot line is meant for high-speed joining, packaging, and general handling applications. The programmer of the YRC1000 control unit is ergonomically arranged and is the lightest in its category. The embedded touchscreen allows precise and intuitive operation and easy navigation with the cursor. The wrist axes of the handling robots are designed in conformance with protection class IP67. This allows them to be used for handling and other automated tasks in more harsh environments. The slim and compact design of the robots allows the manipulators to access deep areas, and the smooth surfaces facilitate the cleaning of the GP robots.
In addition, the development of new materials and technologies, such as carbon fiber composites and advanced servo motors, has enabled the production of lighter and more durable robotic arms with greater strength and range of motion. This has opened up new opportunities for heavy payload robotic arms in a wider range of applications, including aerospace, construction, and logistics. The development of heavy payload robotic arms is expected to create new opportunities of the growth of the market, as more companies adopt automation technologies to improve their operations and stay competitive in the global marketplace.
The high cost of robotic arms is indeed a significant factor that is restraining the growth of the market. Robotic arms are complex machines that require advanced technology and engineering to operate, and as a result, they can be quite expensive to produce and maintain. This high cost is often passed on to the end-users, which can make them unaffordable for small and medium-sized businesses. The high cost of robotic arms is due to several factors, including the cost of the components and materials used in their construction, as well as the cost of research and development required to design and produce these machines.
One of the primary costs associated with robotic arms is the cost of the components and materials used in their construction. Robotic arms require high-quality materials, such as aluminum and carbon fiber, which are lightweight and strong. These materials can be expensive to source and manufacture, contributing to the overall cost of the machine. In addition to the cost of materials, robotic arms also require advanced engineering and technology to operate. Developing the software and control systems necessary to operate a robotic arm can be a complex and expensive process, requiring significant expertise and resources. Furthermore, the components used in robotic arms, such as motors, sensors, and controllers, are also costly. These components must be carefully designed and manufactured to ensure that they can withstand the stresses of operating a robotic arm, which can further increase the cost of the machine. Additionally, the cost of training personnel to operate and maintain these machines can also be a significant expense for companies.
Integrating a robotic arm into an existing production line or system can be challenging because it requires careful planning and coordination. The robotic arm needs to be programmed to perform the tasks that are required in the production line, and it must be compatible with the other equipment and processes that are already in place. This requires a thorough understanding of the existing system, as well as expertise in programming and automation. In addition, there may be physical constraints that need to be considered. For example, the robotic arm may need to fit within a specific workspace or work alongside other machinery that has limited space. There may also be compatibility issues with different types of sensors and control systems used in the production line.
Furthermore, one of the most significant challenges in the Robotic Arms market is ensuring worker safety. Robotic arms can be dangerous if they are not properly designed, installed, and operated. They can move quickly and with great force, which can cause serious injury or damage to equipment if they come into contact with workers or other objects. To address these safety concerns, companies must follow strict safety protocols and regulations. This includes ensuring that the robotic arm is designed and installed to meet safety standards, such as those established by the Occupational Safety and Health Administration (OSHA) in the United States. Companies must also provide proper training to workers who will be operating or working near the robotic arm. In addition, robotic arms are often equipped with sensors and safety features that can help prevent accidents. For example, sensors can detect when a worker is in the vicinity of the robotic arm and slow or stop its movement to prevent collisions.
Collaborative robots, also known as cobots, are becoming increasingly popular in the robotic arm market due to their ability to work alongside humans and their potential to increase efficiency and safety in the workplace. Traditional industrial robots are often designed to work in isolation, with barriers to prevent contact with human workers. In contrast, cobots enable human workers to focus on more complex, cognitively demanding tasks while still enabling them to perform tasks that require dexterity, speed, or precision.
Cobots are equipped with advanced sensors and software that enable them to detect and respond to changes in their environment, making them more adaptable to different tasks and environments. Moreover, they are easy to program and reprogramme, allowing for quick reconfiguration and flexibility in changing production requirements. Among the major benefits of cobots is that they improve workplace safety. They can reduce the risk of workplace accidents by taking on repetitive, strenuous, or dangerous tasks, allowing human workers to focus on more complex and less hazardous tasks. The speed of a cobot can also be lowered when human workers are in close proximity, reducing the risk of collision. Another advantage of cobots is their affordability and ease of use, making them accessible to smaller manufacturers and businesses that may not have the resources to invest in traditional industrial robots. A collaborative robot's popularity in the robotic arm market can be attributed to its potential to improve productivity, efficiency, and safety in the workplace, as well as its affordability and ease of use.
Artificial Intelligence (AI) is transforming every sector and industry, making machines and processes more efficient and accurate. Robotics is one such field that has seen significant advancements with the integration of AI. Robotic arms, in particular, have benefitted from AI-enabled technologies, making them more intelligent and autonomous. Robotic arms are commonly used in manufacturing, assembly lines, and other industries where repetitive and precise tasks are required. However, traditional robotic arms are limited in their capabilities and require human intervention for decision-making. With the integration of AI, these robotic arms can learn from past experiences, make decisions based on data analysis, and adapt to changing situations.
The integration of artificial intelligence into robotic arms has led to the development of collaborative robots (cobots). A surgical robot powered by AI is one example of an AI-enabled robotic arm. The integration of AI into robotic surgical systems has made these systems more accurate and efficient over the past several years. With AI-enabled robotic arms, surgeons can perform complex procedures with greater precision, reducing the risk of complications and improving patient outcomes.
A significant impact has also been made by AI-enabled robotic arms in the manufacturing sector. By utilizing robotic arms, production costs can be reduced and efficiency can be increased because they can operate 24 hours a day, with very little downtime. For small-scale manufacturers, they are also ideal because they can adapt to changing production needs. Additionally, AI-enabled robotic arms are used in logistics, helping to sort, package, and transport goods. Compared to humans, these robotic arms can perform these tasks faster and more efficiently, making them more productive.
As a result of the integration of AI into robotic arms, prosthetics have also advanced. A prosthetic arm with artificial intelligence can be controlled using neural signals, allowing users to perform more complex tasks more easily. These prosthetic arms can also learn from the user's movements and adjust their behavior accordingly, improving the user's overall experience.
In recent years, the use of robotic arms has expanded beyond their traditional applications in manufacturing and assembly lines. Increasingly, they are being adopted in new industries such as agriculture, where they have the potential to increase efficiency and reduce labor costs. One of the main benefits of robotic arms in agriculture is their ability to perform repetitive tasks such as planting, harvesting, and weeding with high precision and speed. In traditional farming, these tasks are often performed by human workers, which can be both time-consuming and labor-intensive. By using robotic arms, farmers can significantly reduce their labor costs and increase productivity. In addition, robotic arms can be used to monitor crops and soil conditions, allowing farmers to make data-driven decisions about when to plant, water, and harvest their crops. This can help improve crop yields and reduce waste, ultimately leading to more sustainable farming practices.
ANSI R15.06-1999: This standard provides guidelines for the manufacture and integration of Industrial Robots and Robot Systems with emphasis on their safe use, the importance of risk assessment and establishing personnel safety. This standard is a national adoption of the International Standards ISO 10218-1 and ISO 10218-2 for Industrial Robots and Robot Systems, and offers a global safety standard for the manufacture and integration of such systems. A robot safety standard is a collection of guidelines for robot specifications and safe operations in which all involved in the manufacture, sales, and use of robots must follow.
ISO 9283:1998. Manipulating industrial robots — Performance criteria and related test methods: This standard was last reviewed and confirmed in 2021. This International Standard describes methods of specifying and testing the following performance characteristics of manipulating industrial robots:
Pose Accuracy and Pose RepeatabilityMulti-Directional Pose Accuracy VariationDistance Accuracy and Distance RepeatabilityPosition Stabilization TimePosition OvershootDrift Of Pose CharacteristicsExchangeabilityPath Accuracy and Path RepeatabilityPath Accuracy on ReorientationCornering DeviationsPath Velocity CharacteristicsMinimum Posing TimeStatic ComplianceWeaving Deviations
ISO 10218-1:2011: This standard specifies requirements and guidelines for the inherent safe design, protective measures and information for use of industrial robots. It describes basic hazards associated with robots and provides requirements to eliminate, or adequately reduce, the risks associated with these hazards. ISO 10218-1:2011 does not address the robot as a complete machine. Noise emission is generally not considered a significant hazard of the robot alone, and consequently noise is excluded from the scope of ISO 10218-1:2011. ISO 10218-1:2011 does not apply to non‑industrial robots, although the safety principles established in ISO 10218 can be utilized for these other robots.
ISO/TS 15066:2016: This standard specifies safety requirements for collaborative industrial robot systems and the work environment and supplements the requirements and guidance on collaborative industrial robot operation given in ISO 10218‑1 and ISO 10218‑2. ISO/TS 15066:2016 applies to industrial robot systems as described in ISO 10218‑1 and ISO 10218‑2. It does not apply to non-industrial robots, although the safety principles presented can be useful to other areas of robotics. This Technical Specification does not apply to collaborative applications designed prior to its publication.
ISO/TR 20218-2:2017: This standard is applicable to robot systems for manual load/unload applications in which a hazard zone is safeguarded by preventing access to it. For this type of application, it is important to consider the need for both access restrictions to hazard zones and for ergonomically suitable work places. ISO/TR 20218-2:2017 supplements ISO 10218-2:2011 and provides additional information and guidance on reducing the risk of intrusion into the hazard zones in the design and safeguarding of manual load/unload installations.
Profiles of 109 companies operating in the Robotic Arms Market market, including revenue, employee count, and market positioning where available.
Showing 109 of 109 companies
Denso Wave Incorporated
Company Headquarters: Japan Founded: 1976 Workforce: ~ 170,000 Company Working: Denso Wave is one of Denso's subsidiaries. DENSO WAVE has four business divisions that each produce goods that help increase industrial productivity: AUTO-ID, which creates, designs, and sells barcode, QR Code, and RFID readers; Robot, which creates, designs, and sells compact industrial robots; Controller, which creates security controllers and programmable controllers; and System Solution, which provides security, cashless, and QR Code solutions. The Denso Group, which has continued to solve the issues of plant automation, including high-level quality assurance, efficiency increase, and reduced production lead times, established the Denso Robot series by combining manufacturing technologies.
Nachi-Fujikoshi Corp.
Company Headquarters: Japan Founded: 1928 Workforce: ~ 7,259 Company Working: Nachi-Fujikoshi Corp. manufactures machinery with operations in China, the Americas, Europe, and the rest of Asia. The company offers machine tools, including broaching machines, precision roll forming machines, grinding machines, machining cells, power finishers, and skiving machining centers for gears. Cutting tools include drills, taps, end mills, gear cutters, broaches, and cut-off and re-grinding tools. Additionally, it provides bearing units, Plummer block housings, radial ball, radial roller, thrust ball, and thrust roller bearings, and robots for spot welding, handling, palletizing, high duty, cleanroom, and option.
Yaskawa Electric Corporation
Company Headquarters: Japan Founded: 1915 Workforce: ~ 15,179 Company Working: Yaskawa Electric Corporation is a leading automation company. The core products of the company are servo motors, controllers, AC drives, and industrial robots. It uses these core technologies to evolve mechatronics using digital data. It operates through motion control, robotics, system engineering, and other segments. The motion control segment includes AC servo drives and controller business. Under the robotics segment, it offers arc and spot-welding robots, painting robots, handling robots, and clean/vacuum transfer robots for semiconductors and LCD manufacturing equipment. Under system engineering, the company offers steel plant business, social system business, environment & energy business, and industrial electronics business. The others segment includes EV drive systems and logistics. Yaskawa Electric Corporation has a presence in regions such as the Americas, Europe, Asia-Pacific, and the Middle East & Africa.
Fanuc Corporation
Company Headquarters: Japan Founded: 1958 Workforce: ~ 7,866 Company Working: Fanuc Corporation (Fanuc) is a multinational corporation that provides automation products and services such as robotics and computer numerical control wireless systems. The company offers products in four categories FA Products, ROBOT Products, ROBOMACHINE Products, and FIELD system Products. Under the FA Products category, the company offers CNC Series, servo motor, servo amplifier, and laser. Under the Robot Products category, the company offers Articulated Robots, Delta ROBOTs, Intelligent Features. Under the Robomachine Products category, it offers Robodrill, Roboshot, Robocut, and Robonano. Under the Field system Products category, it provides FANUC Intelligent Edge Link & Drive system. The company does also offer services for minimizing downtime in a call center, preventive maintenance, and lifetime maintenance for factory Repair services. The company has a global presence with offices across Japan, America, Europe, Asia, and South Africa.
Seiko Epson Corporation
Company Headquarters: Nagano, Japan Founded: 1942 Workforce: ~ 78,739 Company Working: Seiko Epson Corporation (Seiko Epson) is primarily engaged in developing and providing printing solutions, visual communications, and wearable & industrial products and offers related services. The company’s printer business is managed under the printing solutions business segment, which is primarily responsible for offering home and office inkjet printers, serial impact dot matrix (SIDM) printers, page printers, color image scanners, and related consumables. The wearable & industrial products segment is comprised of the wearable products business, robotics solutions business, and the microdevices business. Seiko Epson has its presence all over the world including the countries such as the US, the Netherlands, China, Singapore, Switzerland, Austria, Saudi Arabia, South Africa, India, and New Zealand. Some of the subsidiaries of the company are Epson Sales Japan Corporation, Epson Australia Pty Limited, Epson Europe B.V., Epson America, Inc., Epson Atmix Corporation, and Epson Colombia Ltda.
Dobot.cc
Company Headquarters: China Founded: 2015 Workforce: ~ 1,000 Company Working: Dobot.cc (Dobot) is a company which develops smart desktop robotic arms to boost manufacturing process efficiency. The company's robotic arms may be operated by mobile devices, human voice, and gestures, allowing customers in various industries to benefit from professional and flexible lightweight full-sensing robot solutions, allowing manufacturing users to improve product quality and work productivity. DOBOT places a premium on independent invention and has over 686 patents and 34 PCTs. DOBOT's goods are now exported to over 100 countries, with a total shipment of over 55,000 units.
12 interactive charts drawn from the Robotic Arms Market dataset — market size, regional splits and each segment breakdown. Open one to read its full data table and download it.
Global Robotic Arms Market By Vertical Others Parent
Global Robotic Arms Market By Vertical
Global Robotic Arms Market By Application
Global Robotic Arms Market By AXIS
Global Robotic Arms Market By Payload Capacity
Global Robotic Arms Market By TYPE
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