
On the assembly line of electronics manufacturing, PROKEY's robots demonstrate extreme precision. Collaborative robot arm enables quick and accurate installation of tiny chips and electronic components, ensuring high-quality assembly of electronic products. Thanks to advanced sensing technology, even the smallest parts can be accurately identified and grasped without any deviation. Whether it is the production of smart phones, tablets or other electronic devices, it can efficiently complete various tasks, greatly improving the efficiency of electronic manufacturing and product quality.

On the assembly line of automobile manufacturing, robots play an important role. On the one hand, hydraulic robotic hand undertakes the heavy body welding task, and the solder joint is uniform and firm, which greatly improves the safety and stability of the car. Its precise welding technology ensures that each solder joint meets strict quality standards, providing a solid guarantee for the safety performance of the vehicle. On the other hand, mechanical robot arm can also efficiently move a variety of auto parts, from the engine to the seat, from the tire to the instrument panel, can be accurately transported to the designated location, to achieve seamless production line. Whether it is a large-scale auto assembly plant or a small auto parts production workshop, PROKEY's robots can adapt to different production needs.

PROKEY's robots strictly follow hygiene standards and carry out fast packaging and sorting operations. It can accurately identify different types of food and classify them to ensure the safety and quality of food. At the same time, cnc robot arm's efficient operation speed can meet the high output needs of the food processing industry, saving a lot of labor and time costs for enterprises. Whether it is baked goods such as bread and biscuits, or fresh foods such as fruits and vegetables, PROKEY's robots are capable of a variety of packaging and sorting tasks.
PROKEY's robots are designed to withstand long periods of intense workloads thanks to their robust mechanical construction. The movement is flexible and smooth, can shuttle freely in a small space, and easily adapt to a variety of complex assembly line layout. Through the intelligent control system, users can easily program and operate, and quickly adjust the robot's actions and tasks according to different production needs, greatly improving the flexibility and adjustability of production. In short, it is the right-hand man on the automated assembly line, bringing efficient, stable and intelligent production solutions to enterprises.
-
01.
The ability to accurately perform a variety of operational tasks, whether it is to grab tiny parts, precision assembly, or accurate welding and other work, to ensure stable and reliable product quality.
-
02.
Quickly complete various tasks, adapt to the high-speed production rhythm of the assembly line, improve production efficiency. A large number of workpieces can be processed in a short time, reducing production cycles.
-
03.
Maintain stable performance in continuous work for a long time and are not prone to failure. With a robust construction and high-quality components, it can withstand high-intensity workloads.
-
04.
Can adapt to different product types and production requirements, and can be programmed to quickly adjust actions and tasks. It can also move and operate flexibly in complex pipeline layouts.
-
05.
With intelligent control system, can autonomously judge and deal with some common problems. It can communicate and collaborate efficiently with other equipment to achieve the overall optimization of automated production.
-
06.
Strictly comply with safety standards, equipped with a variety of safety devices, to ensure that when working with personnel will not cause harm to personnel. At the same time, it can also operate in a safe environment to avoid damage due to unexpected circumstances.
Food rocessing industry
-
1
-
2
-
3
-
01.
-
Automobile manufacturing industry:
In the automobile assembly line, the robot arm is widely used. For example, in the welding process, the high-precision robot arm can accurately weld different parts of the body parts.
First, the robot arm is able to perform repeated welding actions with great speed and precision, ensuring consistent quality for each solder joint. Compared with manual welding, the robot arm is not affected by fatigue, emotions and other factors, which greatly improves the efficiency and quality of welding.
Secondly, the robot arm can perform welding operations in a narrow space, and for some complex body structures, such as welding points inside the frame, the robot arm can easily reach and complete the welding task.
In addition, the robot arm can be programmed to adapt to the welding needs of different models, and the production task can be quickly switched by simply adjusting the program, greatly improving the flexibility of the production line.
-
-
02.
Electronic product manufacturing industry:
In the automated assembly line of electronic products, the robot arm also plays an important role. In the case of mobile phone assembly, the robot arm can perform fine component installation and inspection.
In the component installation link, the robot arm can accurately grab tiny electronic components, such as chips, resistors, capacitors, etc., and install them precisely on the circuit board. Its accuracy can reach the millimeter or even micron level, far exceeding the accuracy of manual operation.
In the detection process, the robot arm can use high-precision sensors to detect various performance of the assembled mobile phone, such as screen display quality, camera clarity, audio output, etc. Once a problem is found, the robot arm can quickly sort out the defective products to ensure product quality.
At the same time, the high-speed operation of the robot arm can greatly shorten the production cycle of the mobile phone, improve production efficiency, and meet the market demand for rapid replacement of electronic products
-
03.
Food processing industry:
Robot arms are also widely used in food processing lines. For example, in the packaging process, the robot arm can quickly and accurately carry out the packaging operation of food.
The robot arm can carry out flexible grasping and packaging actions according to different food shapes and packaging requirements. For fragile food, such as biscuits, cakes, etc., the robot arm can be gently grabbed and placed to avoid damaging the food.
In addition, the robot arm can also be used in conjunction with other automated equipment, such as filling equipment, sealing equipment, etc., to achieve a fully automated food packaging production line. This not only improves the production efficiency, but also reduces the chance of artificial contact with food, and improves the level of food hygiene and safety.
-
Exploring Robot Arm Designs: Innovation in Automation
-
Robot arm designs are a cornerstone of modern automation, tailored to enhance efficiency, precision, and versatility across various industries. These robotic systems mimic the movements of a human arm, with designs that vary based on specific applications and operational requirements. From simple single-joint arms to complex multi-axis systems, the evolution of robot arm designs reflects advancements in engineering and technology.
The most common robot arm design is the articulated arm, featuring multiple rotary joints that provide flexibility and a wide range of motion. This design is ideal for tasks like assembly, welding, and material handling in industries such as automotive and aerospace. Cartesian arms, also known as gantry robots, use linear motion along three orthogonal axes, making them suitable for precise pick-and-place operations and applications requiring high positional accuracy.
For tasks that demand a compact footprint and lightweight design, SCARA (Selective Compliance Assembly Robot Arm) robots are a popular choice. These arms excel in fast and repetitive tasks like packaging and assembly. On the other hand, delta robots, with their spider-like structure, are designed for high-speed operations in industries like food processing and pharmaceuticals.
Innovations in robot arm designs also include collaborative robots (cobots), which are engineered to work alongside humans safely. These robots incorporate advanced sensors, adaptive software, and ergonomic designs, enabling seamless human-robot interaction in tasks that require dexterity and adaptability.
-
The Versatile Applications of Robotic Arms in Modern Industries
-
Robotic arms have revolutionized the way industries approach precision, efficiency, and automation. These advanced machines, designed to mimic the dexterity of a human arm, are used in a wide range of applications, from manufacturing and healthcare to research and space exploration. Their ability to perform repetitive and complex tasks with unparalleled accuracy has made them indispensable in many sectors.
In manufacturing, robotic arms are most commonly employed for assembly line tasks such as welding, painting, and material handling. Their precision ensures consistent quality, while their speed significantly boosts productivity. Automotive and electronics industries, in particular, benefit from robotic arms’ ability to handle intricate tasks like soldering and assembling microcomponents.
In the healthcare sector, robotic arms are used in surgical procedures, rehabilitation, and patient care. Surgical robots equipped with robotic arms allow for minimally invasive procedures with enhanced precision, reducing recovery times and improving patient outcomes. They are also used in laboratories for tasks like sample handling and drug testing, ensuring accuracy and efficiency in research.
Q1:Are you trading company or manufacturer?
We are manufacturer.
Q2: Can we be your distributor?
We are looking for distributor and agent all over the world.
Q3: How's the package?
Normally are cartons, but also we can pack it according to your requirements.
Q4: How's the delivery time?
lt depends on the quantity you need, 1-25 days usually
Q5: What are the primary uses of a Robotic Arm?
A: Robotic Arms are versatile tools used in a wide range of industries, including manufacturing, healthcare, research, and more. They can perform tasks such as assembling products, handling materials, performing surgeries, and conducting experiments, often with higher precision and efficiency than human operators.
Q6: How do I operate a Robotic Arm?
A: Operating a Robotic Arm typically involves using a control system, which can range from a simple joystick to a complex computer interface. The specific method of operation will depend on the make and model of the Robotic Arm, as well as the tasks it is designed to perform. Training and guidance from the manufacturer or a qualified technician can help ensure that you are able to operate the Robotic Arm safely and effectively.
Q7: What safety precautions should I take when using a Robotic Arm?
A: Safety is a top priority when using a Robotic Arm. Always follow the manufacturer's safety instructions and guidelines, and ensure that the workspace is clear of obstacles and hazards. Wear appropriate protective equipment, such as safety glasses and gloves, and avoid placing your hands or other objects in the path of the Robotic Arm's movements. Additionally, regular maintenance and inspections can help prevent accidents and ensure the long-term reliability of the Robotic Arm.
Q8: Can I customize a Robotic Arm to fit my specific needs?
A: Many Robotic Arms offer a degree of customization, allowing users to tailor the device to their specific tasks and workspace. This can include modifying the arm's range of motion, adding specialized end-effectors (such as grippers or tools), and integrating the Robotic Arm with other systems or machinery. Consult with the manufacturer or a qualified technician to discuss your customization options and ensure that the modifications meet your needs and comply with safety standards.
Q9: How do I maintain a Robotic Arm?
A: Regular maintenance is essential for the optimal performance and longevity of a Robotic Arm. This may include cleaning and lubricating moving parts, checking for signs of wear or damage, and performing regular inspections and tests. Always follow the manufacturer's maintenance instructions and schedule regular maintenance appointments with a qualified technician.
Q10: What are the benefits of using a Robotic Arm?
A: Robotic Arms offer numerous benefits, including increased precision and accuracy, reduced human error, improved efficiency and productivity, and the ability to perform tasks in hazardous or difficult-to-reach environments. They can also help reduce labor costs and improve worker safety by taking over repetitive, dangerous, or ergonomically challenging tasks.
Q11: How do I troubleshoot issues with a Robotic Arm?
A: Troubleshooting issues with a Robotic Arm can involve checking for power supply problems, inspecting sensors and actuators for malfunctions, and diagnosing software or programming errors. Always consult with the manufacturer's troubleshooting guide and, if necessary, seek assistance from a qualified technician. Prompt attention to any issues can help prevent downtime and ensure the continued reliable operation of the Robotic Arm.
Q12:How do robotic arms contribute to automation in factories?
A: Robotic arms are key components in factory automation, allowing for the automation of repetitive tasks, which increases productivity and consistency. They can work 24/7 without fatigue, leading to higher output and reduced downtime.
Q13: What safety measures are in place when operating robotic arms?
Safety measures include emergency stop buttons, safety cages, light curtains, and sensors to detect human presence. Regular maintenance and programming protocols are also implemented to ensure safe operation and prevent accidents.
Q14: Can robotic arms be programmed for different tasks?
Yes, robotic arms can be programmed and reprogrammed for various tasks. They can be taught new movements and sequences through teaching pendant devices or by using advanced simulation software.
Q15: What is the typical lifespan of a robotic arm?
The lifespan of a robotic arm can vary based on usage and maintenance, but they are generally designed to last for many years. Industrial robotic arms can operate for over a decade with proper care.
Q16: How much does a robotic arm typically cost?
The cost of a robotic arm can range from a few thousand dollars for simpler models to hundreds of thousands for advanced industrial robots with sophisticated features and capabilities.
Q17: Are robotic arms suitable for small businesses?
Yes, robotic arms are becoming more accessible to small businesses due to advancements in technology and decreasing costs. They can be used for a variety of tasks, from simple pick-and-place operations to more complex assembly work.
Q18: What is the difference between a robotic arm and a robot?
A robotic arm is a specific type of robot designed to manipulate objects with precision. Robots can be more complex and autonomous, capable of performing a wider range of tasks beyond just manipulation, such as locomotion and decision-making.
Q19: What are the future trends in robotic arm technology?
Future trends include increased dexterity, enhanced sensory capabilities, and better integration with artificial intelligence for autonomous decision-making. There is also a growing focus on collaborative robots, or cobots, which are designed to work safely alongside humans.