One of the most pressing issues in today’s manufacturing sector is the growing difficulty of securing a stable workforce. Rising labor costs are compounding the challenge of finding skilled workers, and this trend is affecting not only large corporations but also small and mid-sized manufacturers across the board. As a result, factory automation has moved from being an option to an essential strategic response. This shift is not simply about cutting costs; it represents a transition away from human-dependent production structures toward a more stable and sustainable operational model. In this post, we look at the types of automation robots, their key characteristics, and the critical components that drive them.
Table of Contents
Types and Characteristics of Factory Automation Robots
Key Summary Representative factory automation robots include the 6-axis robot, modeled after the human arm for gripping, moving, and machining, and transport equipment such as AGVs (fixed-route guided vehicles) and AMRs (sensor-based autonomous mobile robots). Each type is suited to different environments.
What kinds of automation robots are commonly used in automated processes? When it comes to factory automation, one of the most representative types is the 6-axis robot. Modeled after the human arm with a multi-joint structure, a 6-axis robot is an industrial robot capable of gripping and moving objects as well as performing machining tasks. Its ability to move freely in multiple directions gives it a wide working range and the flexibility to execute complex motions. These characteristics make it widely used in processes that require a variety of movements and reliable repetitive performance, such as automotive welding and component handling.
Transport equipment such as AMRs and AGVs is also an indispensable part of factory automation. An Automated Guided Vehicle (AGV) is an automatic transport system that follows a fixed path guided by magnetic tape or QR codes on the floor. Because it travels along pre-set routes, it offers stable and reliable operation. It is particularly well suited for repetitive logistics tasks such as raw material supply and parts transfer within warehouses where traffic volume is high and route changes are infrequent.
An Autonomous Mobile Robot (AMR) is an intelligent robot that uses built-in sensors to perceive its surroundings and determine its own path, without relying on floor markings or guidance devices. When an obstacle appears during travel, it can find an alternative route on its own. Because it can adapt to changing conditions without requiring reconfiguration, it is well suited for environments where people and equipment share the same space, or where production line layouts change frequently, helping maintain stable logistics flow in dynamic settings.
A wide variety of automation robots are available, and many other types of industrial robots are in use beyond those introduced here. Since each type is suited to different environments, choosing the right one based on your process characteristics and operating conditions is important.
How Factory Automation Changes the Shop Floor
Key Summary Once factory automation robots are introduced, automated equipment can run continuously regardless of shift schedules, helping ensure stable production-line operation and greater process-quality consistency. The physical burden on workers decreases and safety risk management improves.
What changes can you expect on the floor once factory automation robots like these are introduced? First, automated equipment can run continuously over long periods regardless of human shift schedules, which helps ensure stable production line operation. In addition, the variability that tends to occur in repetitive tasks is reduced, contributing to greater consistency in process quality. This is a significant factor in defect rate management and overall process reliability.
There are also notable changes to the working environment. When automated equipment takes over repetitive or high-risk tasks, the physical burden on workers decreases and safety risk management improves as well. These changes can lead not only to short-term productivity gains but also to long-term improvements in both process stability and operational efficiency.
The True Core of Automation Robot Performance: The Actuator
Key Summary Among the many factors determining automation robot performance, the actuator — the drive component that produces movement — plays an especially critical role. Bonsystems’ BCSA V4 is an electric actuator combining durability and high-torque performance with a compact, slim-profile design.
Many factors determine the performance of factory automation robots, but among them, the actuator, the drive component that actually produces movement, plays an especially critical role. An actuator is a device that converts energy from electrical, pneumatic, or hydraulic sources into physical motion. Responding to signals from the control software, it regulates the position, speed, and force of movement, and is applied to the key joints and drive axes of a robot. Because the performance of this component is directly tied to positional control accuracy, motion stability, and durability, it has a substantial impact on the reliability of the entire system.
Our BCSA V4 is an electric actuator that combines the durability and high-torque performance required in factory automation environments with a compact design. Its slim-profile design, which delivers high torque output within a thin form factor, increases design freedom for automation robots and related equipment. The ability to be installed even in space-constrained environments means it can adapt flexibly to a wide range of industrial conditions.
When evaluating the introduction of automated equipment, it is more important to first define the drive requirements of your process than to select a component outright. Only by comprehensively considering the required torque, speed, and repetitive motion conditions can the right actuator be identified.
At Bonsystems, we go beyond simply supplying components. We also provide drive specification reviews and development support tailored to each customer’s application environment and requirements. If you need a technical review of actuator application direction or drive structure, our specialist engineers are available for consultation. If you have any questions about factory automation robots or our BCSA series, please feel free to reach out through the Bonsystems website.
FAQ
Q: Why are 6-axis robots so widely used as automation robots in industrial settings?
A: A 6-axis robot features a multi-joint structure similar to the human arm, allowing it to move freely in multiple directions. This gives it a wide working range and the flexibility to perform complex motions. It can handle not only simple repetitive tasks but also processes that require a combination of different movements, such as welding and component handling. Its ability to repeat the same motion with high accuracy also makes it advantageous for maintaining consistent process quality. It is this combination of versatility and reliability that makes 6-axis robots so widely adopted in factory automation.
Q: In what situations are AGVs and AMRs each suited?
A: An AGV is well suited for repetitive logistics processes with fixed routes and high traffic volume. An AMR is well suited for environments that require flexible responses, such as settings where production line layouts change frequently or where people and equipment move through the same space. Both types serve as automation robots for logistics, and the appropriate choice depends on how the operation is run and how often conditions change. It is important to thoroughly assess your facility’s environment before making a decision.
Q: What changes can I expect on the shop floor after introducing factory automation?
A: One of the most significant benefits is improved stability in production line operation. Because automated equipment can run continuously without depending on human shift rotations, it helps maintain a more consistent production flow. The variability that tends to accumulate in repetitive tasks is also reduced, contributing to greater quality consistency. The ability to improve both process stability and operational efficiency over the long term, not just short-term productivity, is one of the key reasons factory automation is attracting so much attention.
Q: What conditions should I check first when selecting drive components for automation robots?
A: The first thing to clarify is the drive requirements of your process. This includes factors such as the required torque level, operating speed, frequency of repetitive use, and any installation space constraints. Once these conditions are clearly defined, you can select an actuator that is genuinely suited to the operating environment, which in turn helps ensure equipment stability and maintenance efficiency after deployment.
Q: What advantages does the BCSA V4 offer when applied to factory automation robots?
A: The BCSA V4 is an electric actuator with stable torque output and durability, making it reliable even in applications with high repetitive motion demands. Its slim-profile design delivers high torque output within a thin form factor, increasing design freedom for automation robots and related equipment. It can be installed in space-constrained environments, enabling flexible adaptation to a wide range of conditions on the shop floor. These characteristics are also advantageous in cases where robot miniaturization or structural optimization is required.
