Robot Peripherals
Suzhou Gulas Robot Automation Technology: an Innovative Robot Peripherals Manufacturer
Our team is a steel team with a common dream. Among them are thoughtful planners, experienced marketers, and strong leaders.
Variety of Products
We can manufacture handling robots, welding robots, grinding robots and other industrial robot automation system integration applications for customers. We can also provide customers with robot pipeline kits, robot positioners, robot sensors, robot positioning tracks, robot bases and other products.
Rich Market Experience
Our products are widely used in the fields of device intelligence and cloud services, electronic 3C, and medical industries. Our products have also received favor from overseas markets, such as Japan, Taiwan, South Korea and other countries and regions.
One-Stop Service
We provide digital one-stop solutions and undertake robot automation production line integration and transformation projects. Our one-stop service also includes industrial robot installation and commissioning, after-sales service and maintenance, etc.
Multiple Technical Certifications
We have obtained many patent certificates such as robot design and debugging engineer, electrical automation design and debugging engineer, mechanical design engineer, and IT engineer. Our company is also a member of the Suzhou Robot Association.
-
Robot ABB Pipe PackageIn developing new application fields, robot manufacturers face two major challenges. Robots require an increasing number of sensing sensors, and in order to perform more complex assembly...read more
-
Japanese Style Wool Polishing DiscProduct Details 1. Fine plate: Combined with fine wax or reducing agent, it can remove minor scratches, glare, sun lines and other paint surface problems 2. Mid plate: Combined with solid wax and...read more
-
Mirror Polished Cowhide WheelProduct features: 1. Polish finely 2. Polishing meticulously 3. Good concentricity Polishing suggestion: The surface of the product should be polished, and when combined with polishing powder or...read more
-
Thickened Polishing Cloth WheelThe characteristics of thickened polishing cloth wheels mainly include the following aspects: 1.Thickness increase: Thickened polishing cloth wheels are usually thicker than ordinary cloth wheels,...read more
-
Black Diamond Welding ClampFeatures of this product: high temperature resistance, fast heat dissipation, ultra long use, handle made of special insulation material, beautiful appearance, and good hand feel. Thickened and...read more
-
Louvre BladePurpose: Suitable for the grinding and processing of metal and non-metal, wood, stainless steel, stone, and plastic, as well as the polishing of welds, stamped parts, and burrs. It can be...read more
-
Nylon Fiber WheelFiber wheel is a type of polishing and grinding material, also known as fiber polishing wheel, nylon fiber wheel, or non-woven fiber wheel. It has strong cutting force and can partially replace...read more
-
Wire Drawing WheelWire drawing wheel is an economical grinding product with superior performance, and is a classification of grinding products. Specially designed for wire drawing processing of hardware stainless...read more
-
3S Grinding Wheel DiscGrinding wheel is one of the essential products in the industrial production industry and has a wide range of applications in many industries. According to their main uses, they can be divided...read more
-
ABS Reinforced Cover Integrated Grinding Toolclassification: characteristic: 1. Wide application of coarse and fine mesh sizes Multiple granularity options are available, corresponding to different material functions. The combination of...read more
-
Stainless Steel Wire Wheelclassification: Multiple materials to choose from (steel wire/stainless steel wire) Wire diameter 0.3/0.15/0.12 advantage: 1.Good uniformity After polishing and drawing, the silk path will not...read more

Brief Introduction to Robot Peripherals
Robot peripherals are all types of equipment that provide functions the robot is missing or execute functions more cost-effectively, and with which a robot works directly. The term therefore covers camera systems and sensors, grippers and tools, programming and control interfaces, and power supply, for example. Robot peripherals also include base structures, which are essential for making integration in production possible in the first place. Peripheral solutions should be flexible, and it ought to be possible to adapt them to new manufacturing conditions. Popular examples include palletising and machine loading and screw fixings and welding. When the peripherals facilitate rapid changeovers and can be adjusted with ease, they play a key role in the cost-effectiveness of the robot.
Types of Robot Peripherals
Robotic pipe packages help reduce damage and aging of robotic pipes, thereby extending their service life. They are not easily deformed, have good pressure resistance, and can effectively protect internal pipes. The robot pipe package will not affect the normal operation of the robot. It usually includes duct boxes, bellows, anti-collision balls, fixed seats, six-axis components, duct box mounting plates, and fixed sheet metal. These products have excellent properties such as high heat resistance, oil resistance, bending resistance, impact resistance, and insulation. Once assembled, they not only ensure smooth operation of the robot but also simplify maintenance.
A robotic positioner (aka workpiece positioner) is a programmable mechanism with one or more axes that works in unison with an industrial robot to expand the robot’s capabilities. The workpiece is mounted onto the robotic positioner and can be controlled independently of the robot, improving its flexibility. Workpiece positioners come in many different sizes, types, and configurations. They range from the simplest, single-axis turntable to the most complex customized combinations of multiple programmable axes. The basic purpose of a workpiece positioner is to expand the workspace of the robot. This makes them similar to other auxiliary axes where the robot itself is mounted onto a linear track, curved track, or gantry crane. However, unlike these auxiliary axes, the workpiece itself is the part that moves, not the robot.
Sensors in Robotics refer to a mechanical function used to calculate the condition and environment of a robot. This sensor is based on the functions of the human sensory organs. Robots receive a broad range of data about their surroundings, such as position, size, orientation, velocity, distance, temperature, weight, force, etc. This information is what allows the robot to function efficiently while interacting with its environment to perform complex tasks.The working of robot sensors derives from the principle of energy conversion, also known as transduction. Different sensors are required by different robots to attain measures of control and respond flexibly in their environment.
The term robot positioning system is often used to reference a robotic track. Robot positioning systems may also be called a robot transfer unit or RTU. These systems feature a linear track to which an industrial robot is mounted to. These tracks can run just a few feet to allow an articulated robot to reposition itself in a workcell or to move between workstations. They can also span an entire factory, allowing industrial robots to transport workpieces from one end of a manufacturing facility to another. Most robot positioning systems are integrated with six-axis robots. When this is the case the positioning system is considered the seventh axis, turning the robot into a high-DOF robot. Robot positioning systems solve one of the limitations of industrial robots which is their lack of mobility.
Robot Bases make it easy to move the robot to another workstation without unscrew the robot every time. Fasten the robot to the Master Plate and fasten the Base Plate to the other workstation and the robot is ready to perform. For example, let the robot perform a welding task at first workstation and move it to the assembly line the next few hours. The patented design of the Robot Base secures exact zero-positioning every time so no need for reprogramming. The system has been designed to allow it to be brought to the site of operation easily where it’s quickly ready for use. The robot base is designed and built in house to fit the application.
Benefits of Robot Peripherals
High-Performance Operation
Robotic peripherals are ideal for meeting primary, secondary and tertiary requirements. These powerful robotic devices have the power to perform tasks in the most challenging situations.
Efficient and Steady Performance
These peripherals enable extremely reliable, high-speed robots that operate 24/7 and excel at reducing cycle times to increase product throughput.
Maximum Quality Products
Based on highly consistent and precise robotic technology, these robotic peripherals help optimize product quality to meet high customer standards.
Better Floorspace Utilization
From compact or ceiling-mounted industrial robots, to flexible human-robot collaborative robots and everything in between, there are a range of robot external equipment options that can improve production workflows.
Rapid Scalability
Easy-to-use robots with intuitive programming capabilities can be easily deployed and redeployed as needed, giving manufacturers a viable way to handle high-variety, low-volume production requirements.
Programming Flexibility
The manufacturer offers a user-friendly approach to automation integration and a versatile platform that enables robot programming and control within a standard PLC programming environment. Users also gain tight control over every component in the network.
Industrial Robot Accessory Technologies that Enhance the Benefits of Automation
There are several different types of automation accessories that improve upon the existing advantages of industrial robots.
Robotic Vision Systems
A number of 2D and 3D vision systems exist to improve robotic accuracy and flexibility, with wide-ranging applications. Industrialized vision systems can be used in robotic welding for seam tracking to improve accuracy. Other advanced vision systems can be used in combination with advanced machine learning algorithms to help robots grasp objects they’ve encountered only just a few times or never at all. Visions systems dramatically improve the capabilities of robots.
Quick Change Tooling
Industrial robots require advanced tooling and end-effectors to properly carry out their assigned duties. To give robots greater flexibility, this tooling can be changed to allow the robot to conduct different tasks. However, this changeover period, when done manually, can be time-consuming and eat into the productivity gained through robotics. Automated quick change technology allows robots to rapidly switch tooling to conduct different tasks without swelling downtime, significantly accelerating the payback period of robotic systems.
Robotic Training and Programming
Programming robots was once a laborious task. This not only swelled integration costs but reduced the viability of robots to be reprogrammed for other tasks. Today, offline programming techniques can be used for industrial robots, allowing them to start operating the moment they’re installed. Many industrial robots also feature advanced HMIs to reprogram movement and operations for different products and processes. Other more advanced forms of robotics can be trained by being shown how to complete a process manually.
Common Applications of Industrial Robots and Robot Peripherals
Picking, Packing, and Palletizing
Because they run the same program over and over automatically, industrial robots can sustain levels of production and quality that most humans cannot. This is especially true of speed, consistency, and dexterity over the course of an 8-hour shift. Robots can select and organize materials and then deliver them to a warehouse shelf or a workstation on the shop floor. Palletizing robots are found in industries like manufacturing, food processing, warehousing, and shipping. Industrial robots show their value particularly in settings where products are handled several times before shipping. They help reduce direct labor costs while sparing human workers from repetitive tasks.
Assembly Line Operations
Industrial robots are ideal on the assembly line. They eliminate production bottlenecks by working continuously and accurately. For example, in auto plants, they can attach door handles, windshield wipers, hoods, and wheels, freeing human workers for higher-value tasks. Assembly robots are also excellent for consumer electronics, computers, and medical devices, in which components are too intricate for human hands, and accuracy is essential. They do their assembly work without breaks or injuries, increasing output and reducing costs.
Material Removal and Polishing
Manufacturers are turning to industrial robots to offset today’s skills shortage. Material removal includes machining, cutting, deburring, sanding, and polishing. Because of their speed, agility, and accuracy, industrial robots are a perfect fit for manufacturing tasks that require close attention to detail and cause worker fatigue, such as material removal. Examples include machining, cutting, deburring, sanding, and polishing. And by removing humans from the factory floor, manufacturers have improved their plants’ overall safety and eliminated costly human error.
Welding
Welding is a hazardous and time-consuming task that is often well suited for industrial robots. Whether in steel fabricating or automotive manufacturing plants, robots handle the parts and perform the welding. They can perform consistent MIG, TIG, plasma, or spot welding with shorter cycle times, efficiently use shielding gas and other consumables, and have consistent weld quality. Another advantage is that human workers are not subjected to the toxic fumes and burns associated with welding. Companies that employ robots also see a marked improvement in production efficiency.
Painting
Industrial robots surpass humans in painting efficiency and uniform application. While painting can be an inexact and time-consuming process for human workers, robots apply coatings with high precision and speed every time. The paint is delivered using a metering system and spread by combining a robotic arm and sprayer tooling to coat the part accurately, even on complex shapes. Ideal for small and hard-to-reach components, industrial robots are easily reprogrammed to coat different parts or change patterns. They can even be equipped to accommodate rapid changeover from one part to another. While robotic painting is typically thought of as a mainstay of automotive production, other industries use this technology to improve product quality and consistency too, such as prefabricated construction and furniture manufacturing.
Criteria for Selecting the Right Robot Arm and Peripherals
The structure of the robot arms is based on the human arm. They have a high degree of mobility and flexibility – so they can be used in many applications, for example as palletizing, gripping, testing or welding robots in industry. They are available in different designs: The most important feature is the number of degrees of freedom, i.e. the axes of movement. Four to six axes are common. In order to achieve a greater range, robot arms can also be mounted on a linear axis. Seven-axis robots are most similar to the human arm: They are so agile that they can practically reach around corners.
Define the Task
Which robotic arm is the right one for the respective application depends on various factors. The first important criterion is the task that he is supposed to take on: is it about handling components, or should he pack products or paint components? Based on this basic function, the main functions of range, load and cycle time or speed as well as the degrees of freedom required to carry out the work can be defined.
Choose the Right Range
To determine the required arm length of the robot arm, it is necessary to analyze the application on site and to take various criteria into account. These include questions such as:
*Should only one machine or one workstation be operated or several? Example: To increase the utilization of the robot arm, it can be placed between two (or more) identical machine tools in order to remove the components manufactured on them.
*What is the type of application?
*Which and how many positions does the robot have to move to in order to complete the task?
*How far are these positions apart?
*Have the dimensions of peripheral devices such as shelves, conveyor belts, product receptacles or feed stations already been determined?
The required movements that the robot arm must make with the component are then determined. For example, should it be tilted or rotated 180 degrees? It is also important whether the arm can move directly to the respective position or whether it has to reach around a component. The result of these considerations leads to the required number of axes.
Calculate the Load Correctly
When considering the load, it should be ensured that not only the weight of the component to be handled is taken into account, but also the weight of the required gripper. It is also important to analyze the position of the center of mass in relation to the attachment to the robot arm. If the center of gravity is relatively far away, it makes sense to choose a robot with a higher payload in order to enable a trouble-free and dynamic process.
Required Speed
Another step is to determine the required or desired cycle time. How fast should the robot be in completing its task? This is particularly relevant if the robot arm is to perform handling or processing steps in conjunction with a machine. Because then the processing time of the machine sets the framework within which the robot has to do its work. Another important determinant is the positioning accuracy that the robot arm achieves. While it is not crucial for packaging tasks, for example, it has to be very high when the robot places components in machine tools.
Program or “Teach in” the Robot Arm?
When deciding to buy a robotic arm, attention should also be paid to setting up the system. Is there someone in your own company who has an affinity for programming machines? If not, a robot system should be selected that is taught the motion sequences “manually”: The robot arm is guided to the respective position by hand. The market also offers robots with intuitive software for applications that often involve changing tasks and small quantities. As a rule, you do not need specialists to put them into operation.
Don’t Forget Accessories and Peripherals
In addition, it must be considered which accessories are required or available. These include, among other things, grippers or camera systems. The safety equipment is also an important determinant – it depends on where the robotic arm is placed and how high the risk for people and machines is. The periphery within which a robot works and which together with it form the overall application is also important. The periphery specifies which communication interfaces the robot must have in order to exchange information with the other components and to what extent it can be integrated into a higher-level control system. The ROS framework (Robot Operating System) has established itself as an essential standard for overcoming different hardware interfaces.
Maintenance Items for Industrial Robots and Robot Peripherals
Outside of manufacturer-specific guidelines, maintenance items should occur within daily, monthly and annual timeframes, which are explained in more detail below. Always follow manufacturer specifications if they are more stringent than the general guidelines provided.
Daily Checks
Some essential functions should occur on a daily basis to ensure industrial robots are functioning to standards. These checks are cursory but will catch the majority of glaring problems with industrial robots before they begin their daily operations. These checks are as follows:
*Visually check external components for damage and wear.
*Remove any dust or debris from sensors or optical components.
*Check for grease or oil leaks and clean and refill when necessary.
*Listen for any excessive vibration or unusual noises.
Monthly Checks
Monthly checks should be more detailed than daily checks but are still largely superficial. These will catch any operational issues and prevent the majority of problems that occur:
*Clean and ventilate the robot controller’s cooling fans to maximize airflow.
*Back up the robot controller’s memory.
*Complete a visual inspection of the robot in motion, checking the robot, harness and cables.
Quarterly Checks
Quarterly checks are even more detailed than monthly checks and focus on safety features and fixtures. These checks include the following:
*Check all connections between the robot and any power supplies, fans or safety equipment.
*Check all unit cables for any kinks, pinch points, cuts, tears or loose connections.
*Tighten all bolts, especially external mounting bolts.
*Detail clean the mechanical unit to remove any chips or debris.
Annual Checks
Annual checks should be extremely detailed to cover all aspects of machine functionality. This is the time to review any performance metrics from the last year to see if the machine has shown any signs of slowing down or consuming more power than usual. Some of the checks include the following:
*It is recommended to replace batteries every year in the mechanical unit, RAM, APC and CPU. It is essential to ensure these batteries do not die, since this may cause serious issues in functionality.
*Replace grease and oil and be sure to select options that are recommended by the manufacturer.
*Inspect the operation of the brake to ensure no delays.
*Complete thorough functional tests to make sure the robot meets specifications.
Our Certificate
Below are the certificates we obtained:










Cooperating Partner
Our company has reached cooperation with the following brands:









FAQ
Q: Why is a nozzle cleaning station important?
Q: What’s the benefit of adding an anti-spatter sprayer to a nozzle cleaning station?
Q: How can peripherals help protect against collisions?
Q: How are industrial robotic arms controlled?
Q: How do industrial robots use their sensors?
Q: Can a robot have more than two joints?
Q: How many categories of sensors are used in industrial robots?
Q: What is a robot with all rotary joints called?
Q: Which device is used to collect the information of robot?
Q: What is proximity sensor in robotics?
Q: How many joints does a robot have?
Q: How many flexible joints does a industrial robot have?
Q: Why do robots need sensors?
Q: How do industrial robot arms work?
Q: What is the arm like structure of an industrial robot called?
Q: What motors do industrial robotic arms use?
As one of the leading robot peripherals manufacturers and suppliers in China, we warmly welcome you to buy cheap robot peripherals made in China here from our factory. All our products are with high quality and competitive price.
Robot Peripherals, Heavy 3 Axis Positioner, Large Load Grinding Robots