The main difference between collaborative robots and traditional industrial robots is that collaborative robots are robots that can work together and interact closely with humans in a common space. They have characteristics such as light weight, easy control, high safety, friendliness, and easy programming. The advantages of flexible installation and multiple applications of robotic arms add to the feasibility of many collaborative robots, therefore, the application scenarios of collaborative robots are very extensive. Traditional industrial robots are mainly aimed at the industrial field, usually used to produce large heavy objects and high-speed running large machines. It can work on its own power and control ability, and can also run according to pre arranged programs, mainly active in fields such as manufacturing, logistics, agriculture, and animal husbandry. Due to its typically having to occupy a large space, it has poor flexibility.
There are some key differences between collaborative robots and traditional industrial robots.
Working method: Traditional industrial robots are usually used to perform repetitive, fixed action work tasks. Collaborative robots, on the other hand, can work closely with humans to complete complex work tasks and have greater flexibility.
Safety: Traditional industrial robots may cause harm to humans if they accidentally touch the machine during operation. Collaborative robots are designed to have tactile feedback and perception capabilities, allowing them to work safely near humans.
Programming and control: Traditional industrial robots typically require offline programming and precise positioning to perform tasks on production lines. Collaborative robots can adjust their actions in real-time to adapt to constantly changing environments and task requirements.
Deployment cost: Traditional industrial robots typically require extensive setup and debugging to adapt to specific production line environments. In contrast, collaborative robots are more flexible and portable, allowing for faster deployment and reconfiguration.
Application field: Collaborative robots can be widely used in various industries, including automotive manufacturing, healthcare, logistics, etc. Traditional industrial robots are more common in fields such as large-scale production lines and heavy industry.
In summary, collaborative robots and traditional industrial robots each have their own advantages and limitations, and are suitable for different application scenarios. In practical use, it is necessary to choose the most suitable robot type based on specific needs and environment.
Both collaborative robots and industrial robots have their unique characteristics. Overall, collaborative robots are more flexible and secure, while industrial robots are more efficient and stable.
Collaborative robots typically have the following characteristics:
Strong flexibility: Collaborative robots can quickly adapt to various tasks and can be adjusted at any time during the production process.
High safety performance: Collaborative robots are equipped with various safety devices to ensure safe operation around humans. For example, some collaborative robots have tactile sensing capabilities that can avoid collisions with humans.
Easy to operate: The programming and operation of collaborative robots are relatively simple and can be quickly used.
Industrial robots typically have the following characteristics:
Efficiency: Industrial robots can work continuously for several hours and perform high-speed and high-precision movements, thereby improving production efficiency.
High stability: Industrial robots typically have high reliability and stability, and can maintain long-term stable operation in harsh working environments.
Wide application range: Industrial robots can be applied to various industries and fields, including automotive manufacturing, electronics, logistics, etc.
It should be noted that collaborative robots and industrial robots are not completely independent types of robots, and there is a certain degree of intersection and fusion between them. Some industrial robots also have collaborative functions and can safely operate around humans. Collaborative robots may also be used in specific industrial production scenarios, such as assembly, inspection, etc.
Both collaborative robots and industrial robots have their unique advantages.
The advantages of collaborative robots include:
Safety: Collaborative robots are usually equipped with powerful feedback and collision detection safety devices, which can work closely with humans during the work process to avoid or reduce harm to personnel.
Flexibility and ease of operation: Collaborative robots have a relatively simple structure, small size, light weight, and can be flexibly and quickly deployed to adapt to different work environments and task requirements. In addition, the programming and operation of collaborative robots are relatively simple and can be quickly used.
Low investment cost and fast return: Collaborative robots have relatively low costs, short deployment time, and can achieve faster investment returns.
The advantages of industrial robots include:
Efficiency: Industrial robots can work continuously for several hours, performing high-speed and high-precision movements, thereby improving production efficiency.
High stability: Industrial robots typically have high reliability and stability, and can maintain long-term stable operation in harsh working environments.
Wide application range: Industrial robots can be applied to various industries and fields, including automotive manufacturing, electronics, logistics, etc.
It should be noted that collaborative robots and industrial robots are not completely independent types of robots, and there is a certain degree of intersection and fusion between them. Some industrial robots also have collaborative functions and can safely operate around humans. Collaborative robots may also be used in specific industrial production scenarios, such as assembly, inspection, etc. In practical applications, it is necessary to choose the most suitable robot type based on specific needs and environments.