Table of Contents
- BONSYSTEMS · CYCLOIDAL TECHNOLOGY
- Frequently Asked Questions (FAQ)
- References
- Bonsystems
- 🔗 Get the industry trend materials → www.bonsystems.com
A humanoid robot means a robot that moves in a form similar to a human. It aims to walk, maintain balance, handle objects, and respond to various work environments using many joints such as the arms, legs, torso, wrists, and neck.
In the past, humanoids were often regarded as a symbol of technology demonstration or research and development. Recently, however, as artificial intelligence and drive component technology develop together, they are gradually moving to a stage of reviewing actual industrial applicability.
The reason humanoids draw attention is not simply that their form resembles a human. An important background is that they can access spaces, tools, and work environments used by people relatively naturally.
For a robot to move in spaces already configured to human standards, such as factories, logistics, services, and research facilities, a joint structure that can realize various postures and motions is needed. For this reason, the robot industry is deeply connected not only to finished robots but also to core component industries such as reducers and actuators.
This article looks at the background of the industry’s rise, the role of artificial intelligence and drive components, the connection to the component industry, and the possibilities for domestic robot component companies.
The Background to the Humanoid Robot Industry Drawing Attention
Key Summary The robot industry is drawing attention as artificial intelligence and drive component technology develop together. It can be seen as the result of several foundational technologies maturing at the same time, rather than the change of a single technology.
The background to why the robot industry is now drawing attention is hard to explain with a single technology. As advances in artificial intelligence technology and advances in the sophistication of robot drive components mesh together, the possibilities of the humanoid are being handled more realistically.
First, artificial intelligence technology plays an important role in helping a robot understand its surroundings and choose actions suited to the situation. A humanoid robot is not simply a machine that repeats set motions; it is a system that must change posture in various environments, recognize objects, and judge the order of tasks. As artificial intelligence technology develops, the basis for this judgment and control is broadening.
The advance of drive components is also an important background. Because a robot is a structure in which many joints move together, the performance of the reducers and actuators applied to each joint is very important. They must produce strong force within a confined space, withstand repeated motion, and realize stable movement. The higher the level of the drive components, the wider the range of motion the robot can realize.
In the end, the rise of the robot industry is the result of artificial intelligence and hardware technology developing together.
How Artificial Intelligence and Physical AI Change the Role of Robots
Key Summary Physical AI means a direction in which artificial intelligence moves and operates in real space through physical devices such as robots, rather than staying within screens or data. The humanoid is a representative form that shows this current.
A concept often mentioned alongside humanoid robots recently is Physical AI. Physical AI means a direction in which artificial intelligence does not stay within screens or data but moves and operates in real space through physical devices such as robots. The humanoid is a representative form that shows this current.
No matter how much artificial intelligence develops, hardware must support a robot for it to move in real space. To grasp an object, climb stairs, maintain balance, or respond to a worker’s movement, the joints must move stably. What is needed here are drive components such as reducers and actuators.
In a humanoid, software and hardware are hard to think of separately. Even if artificial intelligence plans a motion, what actually realizes that motion is the joint drive unit. The development of the humanoid robot industry should therefore be seen not as competition in artificial intelligence technology alone, but as a process in which drive components, control technology, and mechanical design develop together.
The Connection Between Humanoid Robots and the Drive Component Industry
Key Summary A humanoid places joints in many areas to realize human-like movement. For all these joints to operate stably, reducers and actuators suited to each position are needed.
A humanoid robot places joints in many areas to realize human-like movement. Each joint, such as the shoulder, elbow, wrist, hip, knee, and ankle, has different motion and load conditions. For all these joints to operate stably, reducers and actuators suited to each position are needed.
The reducer plays the role of lowering the motor’s rotation speed and securing the needed torque. The actuator is a drive device that combines the motor, reducer, and control elements to generate the movement of a robot joint. In systems with many joints, such as humanoid robots, the actuator’s size, output, durability, ease of mounting, and control method all become important criteria.
For this reason, the larger the industry grows, the more important the drive component industry becomes. The performance of a finished robot is not determined by its profile or artificial intelligence alone. The processes of actually lifting an arm, moving a leg, and maintaining balance are all connected to the performance of the joint drive units. The growth of the humanoid industry therefore requires the advance of reducer and actuator technology together.
The Significance of the Cycloidal Reducer in Humanoid Robots
Key Summary A humanoid joint moves within a confined space. The cycloidal reducer is one of the methods that can be reviewed in such joint design, with characteristics favorable for distributing loads widely through surface contact.
A humanoid robot joint moves within a confined space. The profile of the arms and legs cannot be excessively large, and the motor, reducer, sensor, and control elements must be arranged together inside the joint. Even so, because each joint must withstand loads and perform repeated motion, a high level of structural stability is required in drive-unit design.
The cycloidal reducer is one of the methods that can be reviewed in such robot joint design. The cycloidal structure has characteristics favorable for distributing loads widely based on surface contact, and can be connected to applications that need strong power transmission within a confined space. It can also realize various reduction designs within a single-stage structure, enabling design reviews tailored to the requirements of each joint.
A robot has different requirements for each joint. Some areas need large force, some areas value fast response, and some areas must arrange the drive unit within a thin structure. Rather than explaining all joints with a single method, it is therefore important to review the reducer and actuator structure in line with the role and load conditions of each joint.
The Possibilities for Korean Component Companies
Key Summary The rise of the robot industry can also be a new opportunity for Korean component companies. Drive components such as reducers and actuators are directly connected to a robot’s movement, making them important elements that make up the industrial base.
The rise of the robot industry can also be a new opportunity for Korean component companies. For robots to spread industrially, not only finished-product development but also the stable supply and internalization of core component technology are needed together. Because drive components such as reducers and actuators are directly connected to a robot’s movement, they are important elements that make up the industrial base.
Bonsystems develops drive solutions applicable to robot joints and automation equipment based on cycloidal reducer and actuator technology. The BSR is a component-level lineup based on cycloidal reducers, and the BCSA is a lineup that integrates cycloidal-reducer-based technology with a frameless motor into an actuator form. The two lineups can connect naturally with fields that require strong force and stable operation within a confined space, such as humanoid robot joints.
The core technical characteristics of Bonsystems lie in high-torque realization based on a cycloidal reduction structure, a compact package, a Pinless structure, and a design direction that reduces the part count. These characteristics can carry meaning in applications that must consider both space constraints and load conditions, such as humanoid joints. Bonsystems reviews robot joint drive structures in line with actual application environments, responding to the growth of the humanoid robot industry as a robot component company.
The humanoid industry is hard to see as a simple fad. As artificial intelligence and drive component technology develop together, discussion is expanding about what role robots can play in real environments. In this process, reducers and actuators are becoming even more important as the core foundation that realizes a robot’s movement.
Frequently Asked Questions (FAQ)
Q1. Why is the humanoid robot industry drawing attention?
A. It aims to move in various environments in a form similar to a human. As artificial intelligence and drive component technology develop together, actual industrial applicability is being reviewed more concretely, so it is drawing attention.
Q2. Why is the actuator important in robots?
A. The actuator is the drive component that actually moves a robot’s joints. For many joints such as the arms, legs, wrists, and neck to move stably, reducers and actuators suited to each position are needed.
Q3. How is the robot industry connected to the component industry?
A. A robot is a system that needs many joints and drive units. As finished robots develop, the role of core components such as reducers, actuators, sensors, and controllers grows together.
Q4. What role can Bonsystems play in the humanoid robot industry?
A. We develop drive solutions needed for robot joints based on cycloidal reducer and actuator technology. The BSR and BCSA lineups can connect with robot joint applications that need strong force and stable operation within a confined space.
References
• [1] Bonsystems Official Website — https://www.bonsystems.com
• [2] International Federation of Robotics (IFR) — https://ifr.org
• [3] Korea Association of Robot Industry (KAR) — https://www.irobotics.or.kr
• [4] Ministry of Trade, Industry and Energy – Robot Industry Policy — https://www.motie.go.kr
