robotics and humanity

In today's industrial manufacturing field, robotic and automated technology was in the process of upgrading. In terms of robot end-point execution, the servo-electric claw became the key force for the robot's automatic end-point execution. For example, the WOMMER servo-electric claw performed well in the core processes of loading and unloading, handling, and assembly in the field of mechanical processing. In the loading and unloading process, it can stably transport different sized parts with millimeter precision or even higher precision by virtue of high-precision position control and powerful gripping force. During transportation, the advanced servo-drive system can automatically adjust the gripping force and angle according to the transportation path and the characteristics of the parts. The integrated sensor system can monitor the state of the parts in real time and adjust the transportation strategy to avoid damage to the parts. In the assembly process, through the integration of high-precision sensors and advanced control algorithms, the assembly position can be accurately identified and located, improving product quality and compatibility, and reducing the cost and risk of manual intervention. The application of robotic quick-change devices and quick-change jigs was also an important embodiment of the automatic upgrade. The robot quick-change device could quickly change the tools at the end of the robot. It had high-precision positioning, fast locking and unlocking functions, and no manual intervention was needed to shorten the production preparation time and improve the overall efficiency of the production line. Quick-change jigs could quickly adapt to different shapes, size, and materials of the work pieces. Whether it was the assembly of precision electronic components or the handling of heavy machinery parts, it could provide efficient and reliable solutions. The combination of the two greatly enhanced the flexibility and adaptability of the production line, bringing economic benefits. Robots represented by the KUKa robot had improved greatly in terms of interruption and vision technology. The interrupt program was powerful and could respond to external events quickly without interrupting the main program. For example, the interrupt program could be activated by a button signal to pause the robot or adjust the movement speed. The definition file was structured to facilitate expansion and modification. Before use, interrupt initializations involving various settings were required. The interrupt number allocation adopted a detailed classification system to manage and call different types of interrupt. When the vision was used to move the work piece, the robot would use the vision to capture the state of the work piece and compare it with the preset standard work piece to obtain the offset value. Then, it would calculate the new placement point to achieve accurate grasping, reduce human operation error, and improve efficiency. There were also new developments in humanoid robots. The humanoid robot " Assembler " made in Sichuan, China, could work 24 hours a day, and its efficiency was twice that of manual labor. It could complete the scanning and tagging operation through the human-like 7 automatic arms, 6 automatic hands, and full-body coordination force control technology. It could also adapt to the flexible production needs of TV sets of different specifications and size through training and learning. Robot loading and unloading integration was a key step in the enterprise's automatic upgrade. It could replace manual operations and greatly improve production efficiency, reduce labor costs, avoid fatigue, errors, and incohesiveness of manual operations, and improve production stability, reliability, flexibility, and expansibility. It could also improve the working environment. With technological advancement and cost reduction, the application prospects would be broader. " A Short History of the Future: Legends of the Intelligent Era " was equally exciting. Everyone was welcome to click and read it!

Cobos Robotics was founded in 1998 and was one of the world's leading service robot manufacturers. Their Earth Treasure series of cleaning robots ranked first in the global core market share. The Cobos robot introduced artificial intelligence and visual recognition systems to provide the best floor cleaning solution through the identification and analysis of the home environment. They also launched the window-cleaning robot, the window treasure, WIN BOTW2, which solved the problem of the window-cleaning robot through independent base stations and wet wiping technology. In addition, Cobos also provided commercial robot products and solutions, and was committed to promoting commercial cleaning robots as standard equipment for floor cleaning in commercial buildings. Their goal was to create a service robot that could provide life, production, and ecological scenarios, bringing wisdom, convenience, and a humane experience to users. Cobos robots have served 25 million households worldwide and saved users 3.9 billion hours.

Cobos Robotics was a company that focused on the development and manufacturing of service robots. They were committed to becoming the world's top robot company and uphold the mission of "letting robots serve everyone." Cobos Robotics launched a variety of products, including window cleaning robots, commercial cleaning robots, butler robots, etc., to meet the needs of different users. Their products had innovative functions and high performance, aiming to bring users a smart, convenient, and humane experience. Cobos Robotics had a leading position in the industry and continued to develop its global strategy to build a global leading brand.

The 2025 World Robotics Conference and Exposition (WRC2025) will be held in Beijing in August. This was an international event in the field of robots approved by the State Council and hosted by the China Institute of Electronic Technology and the World Robotics Cooperation Organization. Since 2015, it has been successfully held for nine times. The conference gathered four sections: forum, exhibition, competition, and themed activities. The forum was composed of three main forums, more than 20 special forums, and the opening and closing ceremonies. The exhibition was arranged according to the "4 + C" system."4" was the four exhibition areas of industrial robots, humanoid robots, service robots, and special robots."C" was the innovation exhibition area, focusing on the logistics robots, drones, robot bodies, key components, upstream and downstream of the industrial chain, and related fields. At that time, more than 100 enterprises and scientific research institutions would bring more than 600 products to the exhibition. There were four major competitions in the robot competition: the Harmony Robot Challenge, the BCI-controlled Robot Competition, the Robot Usage Competition, and the Youth Robot Design Competition. About 1,000 participants would compete on the spot. The conference will invite companies, universities, and scientific research institutions in the global robot field to participate in the conference, focusing on the new scientific research results, application products, and solutions in the world of robots, providing an international industrial exchange platform for the China robot industry. The exhibition area will reach 50,000 square meters. The content of the conference covered the global robot industry policy and strategic planning, the latest research progress in the academic community, cutting-edge application exploration, technology trend release, industrial development blueprint, etc. It would fully display the application and research results of the robot industry, and discuss the evolution pattern of the robot industry under the artificial intelligence wind with the global elites. In addition, the 2025 International Conference on Mechanical Systems Engineering and Robotic Intelligence (MSARI 2025) will be held in Tianjin on February 15 - 16 and will be included in Ei. The conference topics included mobile robots, robot intelligence and learning, mining robots, and many other aspects (topics included but not limited to these. For more detailed topics, please consult Teacher Ouyang). "A Short History of the Future: Legends of the Intelligent Era" was equally exciting. Everyone was welcome to click and read it!

The 2024 World Robotics Conference was held in Yizhuang, Beijing from August 21 to 25, during which the 2024 World Robotics Exposition was held. At the exhibition, 169 Chinese and foreign companies brought more than 600 innovative products, including more than 60 new products. The exhibition attracted many international audiences. " A Short History of the Future: Legends of the Intelligent Era " was equally exciting. Everyone was welcome to click and read it!

The following are some of the situations regarding the industrial automaton lens in Dongguan: ** 1. Common parameters of industrial lenses ** 1. ** Field of View (Field of View)** - This was the range that the image acquisition device could cover, which was the size of the object plane corresponding to the image on the target surface. 2. ** Working Distance ** - Generally, it refers to the distance from the front of the lens to the object being tested. The system generally cannot produce a clear image if it is less than the minimum working distance. 3. ** Aperture ** - It was expressed as F, measured by the ratio of the focal length of the lens f to the aperture D. Each lens was marked with a maximum F value. For example, 8mm/F1.4 represented a maximum aperture of 5.7mm. The lower the F value, the larger the aperture. The higher the F value, the smaller the aperture. 4. ** relative aperture ** - It refers to the ratio of the diameter of the entrance hole of the lens (expressed by D) to the focal length (expressed by f), namely D/f. 5. ** Maximum relative aperture ** - It was usually marked on the lens, such as 1:1.2 or f/1.2. 6. ** resolution ** - It was an important factor to evaluate the quality of the lens. It referred to the number of pairs of black and white stripes that the lens could distinguish in millimeters. 7. ** Focus ** - It refers to the distance from the principal point to the focal point, called the focal length of the optical system. It determines the ratio between the image and the actual object. In the case of a fixed object distance, to get a large proportion of the image, it was necessary to choose a long focal length lens. 8. ** Depth of Field ** - It refers to the range where the image is still clear within a certain distance before and after the object is focused. The depth of field varied with the aperture, focal length, and shooting distance of the lens. The larger the aperture, the smaller the depth of field, and the smaller the aperture, the greater the depth of field. The longer the focal length, the smaller the depth of field, and the shorter the focal length, the greater the depth of field. The closer he was to the subject, the smaller the depth of field, and the further away he was from the subject, the greater the depth of field. 9. ** Aperture ** - The numerical aperture is equal to the product of the index of refraction n of the medium between the object and the objective lens and the sin of half the aperture angle of the objective lens (a/2). The calculation formula is N.A = n*sin a/2. The numerical aperture was closely related to other optical parameters. It was directly proportional to the resolution and the amplification rate. In other words, the numerical aperture directly determined the resolution of the lens. The larger the numerical aperture, the higher the resolution. 10. ** Physical Interface ** - The physical interface of the lens referred to the physical interface between the lens and the camera. The common interface forms of industrial lenses were C port, CS port, F port, etc. Among them, C/CS was an international standard interface specifically used in the industrial field. ** 2. Usage of industrial lenses ** 1. ** Quality Inspection ** - On a high-speed assembly line, it could be used to check whether the screw holes were aligned, whether the bottle cap was closed properly, and whether there were any missing parts. It could instantly inspect a large number of products and efficiently identify defective products. This required the industrial lens to maintain high resolution at all corners, and the images taken at any shooting distance and field of view must be clear. 2. ** As the "eyes" of robots and AI ** - The industrial camera was not only a good helper for the quality control of the factory production line, but it could also be used as the eyes of robots and AI to understand the world. ** 3. Liquid lens technology application in industrial lenses (possible technological developments related to Dongguan)** 1. ** Liquid lens technology principle ** - A liquid lens was an optical component made of one or more liquids without mechanical connections. The optical parameters (focal length, radius of curvature, etc.) of the optical component could be changed by external control. Currently, there were two main technical routes for the commercial mass production of liquid lenses: dual-liquid electrowetting lenses and liquid-filled lenses. 2. ** The application advantage in machine vision ** - In machine vision applications, the use of traditional high f/#lenses would cause problems such as reduced aperture, reduced resolution, and extended exposure time due to increased depth of field. The use of the liquid lens allowed the lens to be focused with a more compact optical structure, and it had a millisecond-level adjustment speed. It was faster and more durable than the traditional lens with a purely mechanical translation lens structure, and there was no need to consider the problem of depth of field. For example, in a fast-moving assembly line and a bar code detection scene with multiple prospects and backgrounds, traditional mechanical lenses would have many inconveniences. However, the liquid lens could be used to adjust the radius of curvature of the liquid lens when the object distance changed. Similarly, when the telekinetic lens was used to fix the object distance to detect the size, if the object distance changed beyond the depth of field, the traditional lens needed to adjust the working distance, while the telekinetic lens equipped with a liquid lens could achieve a single lens multi-object distance size detection without adjusting the lens position. ** IV. Status of relevant enterprises in Dongguan ** 1. ** Primes ** - Primus was a core product supplier of machine vision and industrial automaton in Dongguan. Its main products included industrial lenses, industrial cameras, visual light sources, image measuring instruments, machine vision inspection systems, etc. For example, there was a 5-million-pel industrial lens with a resolution of 5 million: 160lq/mm(center) 100lq/mm(periphery), focal length 12mm, aperture range F1.6 - F22, interface C, filter size M52.0x0.72mm, and other parameters. 2. ** DongGuan Le Shi Automatic Technology Co., Ltd. ** - The company was founded in 2011, focusing on machine vision light sources, such as linear light sources, line scan light sources, and many other types of machine vision LED light sources. Although it is not directly producing industrial automatic lenses, it can provide matching light source products for the application of industrial lenses in machine vision inspection systems. <a href="/?from=ask_words" style="color:red" target="_blank">Read more exciting novels for free</a>

Science fiction robotics inspire real - world research. For example, the idea of humanoid robots like Data from 'Star Trek' makes researchers strive to create more advanced human - like robots in real life. Also, the concept of robots with artificial intelligence in science fiction has led to more focus on AI in real - world robotics. Fiction often presents possibilities that researchers then try to make real.

The robots in Joy of Life followed the three laws of robots. The first law was that a robot must not harm a person, nor should it stand by and watch a person get hurt. The second law was that a robot should obey all orders from a person, but it must not violate the first law. The third law was that a robot should protect its own safety, but it must not violate the first and second laws.

The robots in Joy of Life followed the three laws of robots. The first law was that a robot must not harm a person, nor should it stand by and watch a person get hurt. The second law was that a robot should obey all orders from a person, but it must not violate the first law. The third law was that a robot should protect its own safety, but it must not violate the first and second laws. As for the existence of the four laws of Joy of Life, there was no mention of it in the search results.

The robots in Joy of Life followed the three laws of robots. The first law was that a robot must not harm a person, nor should it stand by and watch a person get hurt. The second law was that a robot should obey all orders from a person, but it must not violate the first law. The third law was that a robot should protect its own safety, but it must not violate the first and second laws.