Walls are no longer barriers. As robotics technology advances, robots are being applied in various fields. In particular, they are being deployed in disaster sites where human access is limited, building exterior cleaning, and structural inspections. However, conventional bipedal and quadrupedal robots have limitations in overcoming physical obstacles. Obstacle-negotiation capability has become a key criterion in determining whether robots can be applied in disaster and industrial environments. There is a robot that meets this demand: the wall-climbing robot. A wall-climbing robot is capable of moving on walls and ceilings. This differentiated mobility method can be utilized in various fields, including survivor search and rescue in disaster sites, building facade cleaning and inspection, and hazardous tasks in industrial environments.
[Fig] Example of a wall-climbing robot climbing a wall
Wall-climbing robots emerged through a different approach from conventional robots. Traditional legged robots evolved by maintaining balance using feet or tracks on the ground. Recently, these achievements have enabled robots to implement obstacle-negotiation capabilities similar to those of humans and animals. However, wall-climbing robots were developed specifically to conquer walls and ceilings, focusing on adhesion capability to ceilings and walls. Recently, wall-climbing robot technology has evolved into two approaches: the vacuum suction method and the magnetic leg method. The vacuum suction method uses a principle similar to that of a vacuum cleaner, allowing attachment to various surfaces, but it has disadvantages such as increased robot size and high energy consumption. In the magnetic leg method, legs equipped with magnets are used, making it easy to traverse walls and ceilings in steel environments. However, its use is limited on non-ferrous metal surfaces. The advancement of wall-climbing robot technology is becoming a turning point for industry.
[Fig] Examples of the two wall-climbing robot methods: “Vacuum Suction Method” and “Magnetic Leg Method”
Domestic companies are also actively developing wall-climbing robot technologies. A representative company is Diden Robotics Co., Ltd. (CEO: Junho Kim). Diden Robotics developed a wall-climbing robot capable of freely climbing walls and ceilings using magnetic feet. Diden Robotics’ wall-climbing robot utilizes magnetic legs and can be deployed in high-risk environments in shipbuilding, oil refining, and chemical industries, providing automated inspection and work solutions. Diden Robotics successfully secured Seed-stage investment (amount undisclosed) in recognition of its technological capabilities. The company stated that, based on this investment, it plans to expand the application of its wall-climbing robots beyond shipbuilding into a variety of industrial sectors.
[Fig] Diden Robotics Co., Ltd.’s wall-climbing robot
AI Safety Research Institute Co., Ltd. (CEO: Inbaek Hwang) developed a wall-climbing robot and inspection system for safety diagnostics. The company implemented a wall-climbing robot that can adhere to wall surfaces using vacuum pressure. In addition, it developed a system capable of inspecting structural damage by applying an impact sound generator to the wall-mounted robot. Through this technology, the robot can inspect the condition of facilities while climbing and traveling along wall surfaces. As such, corporate interest and development efforts in wall-climbing robots are increasing.
[Fig] AI Safety Research Institute’s wall-climbing robot
The government is also actively supporting the development of industrial robot technologies. By 2030, the government plans to invest more than KRW 3 trillion and deploy one million robots across industrial sites. Specifically, it aims to secure eight core technologies, including five hardware technologies (reducers, servo motors, grippers, sensors, and controllers) and three software technologies (autonomous manipulation, autonomous mobility, and interaction). Through these efforts, the government plans to cultivate 15,000 robotics professionals and foster 30 intelligent robotics companies with annual revenues exceeding KRW 100 billion.
[Fig] Vision and strategy for the advanced robotics industry presented by the Ministry of Trade, Industry and Energy
The BLT Research Center stated, “Wall-climbing robot-related technologies are expected to provide new opportunities for companies.” It added, “Securing intellectual property rights for various technologies related to wall-climbing robot materials, components, and equipment is expected to be an effective strategy.”
As of 2024, BLT Patent & Law Firm has been selected by more than 2,000 innovative startups as a partner for IP acquisition, response strategy development, investment attraction, and technology-specialized IPO support, helping companies achieve growth and success through IP-based business support services.
#WallClimbingRobot #IndustrialRobot #DisasterRobot #InspectionRobot #wallclimbingrobot #climbingrobot #DisasterSite #IndustrialSite #VertiGo #DidenRobotics #AISafetyResearchInstitute
Walls are no longer barriers. As robotics technology advances, robots are being applied in various fields. In particular, they are being deployed in disaster sites where human access is limited, building exterior cleaning, and structural inspections. However, conventional bipedal and quadrupedal robots have limitations in overcoming physical obstacles. Obstacle-negotiation capability has become a key criterion in determining whether robots can be applied in disaster and industrial environments. There is a robot that meets this demand: the wall-climbing robot. A wall-climbing robot is capable of moving on walls and ceilings. This differentiated mobility method can be utilized in various fields, including survivor search and rescue in disaster sites, building facade cleaning and inspection, and hazardous tasks in industrial environments.
[Fig] Example of a wall-climbing robot climbing a wall
Wall-climbing robots emerged through a different approach from conventional robots. Traditional legged robots evolved by maintaining balance using feet or tracks on the ground. Recently, these achievements have enabled robots to implement obstacle-negotiation capabilities similar to those of humans and animals. However, wall-climbing robots were developed specifically to conquer walls and ceilings, focusing on adhesion capability to ceilings and walls. Recently, wall-climbing robot technology has evolved into two approaches: the vacuum suction method and the magnetic leg method. The vacuum suction method uses a principle similar to that of a vacuum cleaner, allowing attachment to various surfaces, but it has disadvantages such as increased robot size and high energy consumption. In the magnetic leg method, legs equipped with magnets are used, making it easy to traverse walls and ceilings in steel environments. However, its use is limited on non-ferrous metal surfaces. The advancement of wall-climbing robot technology is becoming a turning point for industry.
[Fig] Examples of the two wall-climbing robot methods: “Vacuum Suction Method” and “Magnetic Leg Method”
Domestic companies are also actively developing wall-climbing robot technologies. A representative company is Diden Robotics Co., Ltd. (CEO: Junho Kim). Diden Robotics developed a wall-climbing robot capable of freely climbing walls and ceilings using magnetic feet. Diden Robotics’ wall-climbing robot utilizes magnetic legs and can be deployed in high-risk environments in shipbuilding, oil refining, and chemical industries, providing automated inspection and work solutions. Diden Robotics successfully secured Seed-stage investment (amount undisclosed) in recognition of its technological capabilities. The company stated that, based on this investment, it plans to expand the application of its wall-climbing robots beyond shipbuilding into a variety of industrial sectors.
[Fig] Diden Robotics Co., Ltd.’s wall-climbing robot
AI Safety Research Institute Co., Ltd. (CEO: Inbaek Hwang) developed a wall-climbing robot and inspection system for safety diagnostics. The company implemented a wall-climbing robot that can adhere to wall surfaces using vacuum pressure. In addition, it developed a system capable of inspecting structural damage by applying an impact sound generator to the wall-mounted robot. Through this technology, the robot can inspect the condition of facilities while climbing and traveling along wall surfaces. As such, corporate interest and development efforts in wall-climbing robots are increasing.
[Fig] AI Safety Research Institute’s wall-climbing robot
The government is also actively supporting the development of industrial robot technologies. By 2030, the government plans to invest more than KRW 3 trillion and deploy one million robots across industrial sites. Specifically, it aims to secure eight core technologies, including five hardware technologies (reducers, servo motors, grippers, sensors, and controllers) and three software technologies (autonomous manipulation, autonomous mobility, and interaction). Through these efforts, the government plans to cultivate 15,000 robotics professionals and foster 30 intelligent robotics companies with annual revenues exceeding KRW 100 billion.
[Fig] Vision and strategy for the advanced robotics industry presented by the Ministry of Trade, Industry and Energy
The BLT Research Center stated, “Wall-climbing robot-related technologies are expected to provide new opportunities for companies.” It added, “Securing intellectual property rights for various technologies related to wall-climbing robot materials, components, and equipment is expected to be an effective strategy.”
As of 2024, BLT Patent & Law Firm has been selected by more than 2,000 innovative startups as a partner for IP acquisition, response strategy development, investment attraction, and technology-specialized IPO support, helping companies achieve growth and success through IP-based business support services.
#WallClimbingRobot #IndustrialRobot #DisasterRobot #InspectionRobot #wallclimbingrobot #climbingrobot #DisasterSite #IndustrialSite #VertiGo #DidenRobotics #AISafetyResearchInstitute