Exapro Marketplace specializes in providing cost-effective solutions for businesses by offering used industrial equipment, including KUKA robots. Renowned for their reliability, technological sophistication, and precision, used KUKA robots can offer excellent value.
KUKA models like the compact and adaptable KR 6 R700 are well-suited for small spaces and various tasks. For more demanding applications with a need for strength and precision, the KR 16-2 offers an ideal choice, while the heavy-duty KR 210 R3100 handles high payload tasks with ease. These diverse models cater to a broad range of industry requirements.
When buying a used KUKA robot, several factors need careful consideration. The condition and maintenance history of the robot are vital indicators of its future performance. Always request information about past maintenance schedules and inspect the robot for any visible signs of wear or damage.
Total operating hours, akin to mileage on a used car, provide insights into the remaining lifespan of the robot. Robots with fewer operating hours are generally expected to last longer.
It's also essential to confirm the software is up-to-date and that the control system aligns with your intended application. Support availability and access to spare parts are crucial considerations to ensure smooth operation in the long run.
Training may also be required if this is your first time with a KUKA robot. Check if training programs are available for your team.
Exapro Marketplace streamlines the buying process by providing comprehensive product information and professional assistance. Properly researched, a used KUKA robot is a valuable investment, offering superior functionality at a fraction of the cost of a new machine. It presents a smart, effective way to enhance productivity and operational efficiency in your business
Showing 1 - 20 out of 117
Year: 2005
Application type | Handling |
---|---|
Reach in mm | 1610 mm |
Control type | Kr C2 |
Number of axis | 6 |
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Payload in kgs | 16 kg |
Year: 2014
Number of axis | 6 |
---|---|
Payload in kgs | 10 kg |
Reach in mm | 1100 mm |
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Control type | KR C4 |
Year: 2008
Application type | Welding |
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Control type |
Number of axis | 6 |
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Year: 2010
Reach in mm | 2400 mm |
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Control type |
Payload in kgs | 200 kg |
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Year: 2010
Application type | Handling |
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Reach in mm | 7000 mm |
Control type |
Number of axis | 5 |
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Payload in kgs | 200 kg |
Treated for Clean room | Yes |
Year: 2009
Application type | Handling |
---|---|
Reach in mm | 3900 mm |
Control type | KR C2 Ed05 |
Number of axis | 6 |
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Payload in kgs | 210 kg |
Year: 2019
Application type | Handling |
---|---|
Reach in mm | 900 mm |
Control type | krc4 compact |
Number of axis | 6 |
---|---|
Payload in kgs | 6 kg |
Year: 2014
Application type | Handling |
---|---|
Reach in mm | 2700 mm |
Control type | KRC2 Ed05 |
Number of axis | 6 |
---|---|
Payload in kgs | 210 kg |
Year: 2011
Application type | Handling |
---|---|
Reach in mm | 1636 mm |
Control type | KR C4 |
Number of axis | 6 |
---|---|
Payload in kgs | 16 kg |
Year: 2008
Application type | Handling |
---|---|
Reach in mm | 2826 mm |
Control type |
Number of axis | 6 |
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Payload in kgs | 450 kg |
Year:
Application type | Handling |
---|---|
Reach in mm | 3326 mm |
Control type | KR C4 |
Number of axis | 6 |
---|---|
Payload in kgs | 340 kg |
Year:
Application type | Welding |
---|---|
Reach in mm | 2700 mm |
Number of axis | 6 |
---|---|
Control type | Arc 20 |
Year: 2007
Application type | Handling |
---|---|
Reach in mm | 1600 mm |
Control type | KRC2 Compact |
Number of axis | 6 |
---|---|
Payload in kgs | 16 kg |
Year: 2013
Application type | Handling |
---|---|
Reach in mm | 2696 mm |
Control type | KR C4 |
Number of axis | 6 |
---|---|
Payload in kgs | 210 kg |
Year: 2010
Application type | Handling |
---|---|
Reach in mm | 2400 mm |
Control type | KR C2 |
Number of axis | 6 |
---|---|
Payload in kgs | 200 kg |
Year: 2004
Application type | Handling |
---|---|
Reach in mm | 3200 mm |
Control type | KRC2 ED05 |
Number of axis | 4 |
---|---|
Payload in kgs | 180 kg |
Year: 2002
Application type | Handling |
---|---|
Reach in mm | 2700 mm |
Control type |
Number of axis | 6 |
---|---|
Payload in kgs | 210 kg |
Year: 1998
Application type | Handling |
---|---|
Reach in mm | 2400 mm |
Control type | PM6-600 |
Number of axis | 6 |
---|---|
Payload in kgs | 200 kg |
Treated against heat | Yes |
The market for used KUKA industrial robots is thriving due to the increasing demand for cost-effective automation solutions across various industries. The availability of high-quality used robots offers a more affordable option for companies looking to automate their production processes. With the rise of Industry 4.0 and the Internet of Things (IoT), businesses are increasingly seeking used KUKA robots for their manufacturing needs to remain competitive.
The prices of used KUKA industrial robots vary depending on factors such as the model, age, condition, and payload capacity. Generally, older models with lower payload capacities are more affordable than newer, high-capacity models. Market demand, availability, and technological advancements also influence price trends. As more businesses recognize the benefits of automation, the demand for used KUKA robots continues to grow, impacting prices and availability in the market.
Technological advancements in robotics, artificial intelligence, and automation have a significant impact on the used KUKA robot market. As newer models with advanced features and capabilities are introduced, older models become more affordable and accessible. Furthermore, the development of retrofit kits and software upgrades allows companies to enhance the functionality and performance of used KUKA robots, making them a more attractive option for businesses seeking cost-effective automation solutions.
KUKA offers a wide range of industrial robot models to cater to various industries and applications. Some popular models include the KR AGILUS series, known for its speed and precision; the KR QUANTEC series, which offers versatility and high payload capacities; and the KR IONTEC series, designed for cost-effective operation and flexibility in limited spaces. Familiarizing yourself with the features and capabilities of different KUKA robot models is crucial in selecting the best fit for your specific needs.
Payload capacity and reach are two critical factors to consider when choosing a KUKA robot model. Payload capacity refers to the weight a robot can carry, while reach is the maximum distance a robot can extend its arm. To determine the right robot model for your needs, compare the payload capacities and reach of various KUKA robots, keeping in mind the weight and size of the objects you need to handle in your production process.
Different industries have unique requirements and challenges, so it's essential to identify the most suitable KUKA robot model for your specific industry. For example, the automotive industry may require high-speed and high-payload robots, while the electronics industry may need robots with high precision and a smaller footprint. Conducting thorough research and consulting with industry experts can help you pinpoint the KUKA robot model that best meets your industry's demands.
Before purchasing a KUKA robot, it's important to ensure that it's compatible with your existing equipment and production line. This includes checking for compatibility with your current factory automation software, controllers, and peripheral devices. Assessing compatibility early in the process can save you time and resources in the long run, ensuring a smooth integration of the KUKA robot into your production line.
When considering the purchase of a used KUKA robot, it is crucial to carefully examine the robot's overall condition and maintenance history. Check for any visible signs of wear and tear, corrosion, or damage to the robot's exterior. Inquire about the robot's maintenance records and ensure that it has been regularly serviced and well-maintained throughout its lifecycle. A robot with a well-documented maintenance history is more likely to perform reliably and require fewer repairs in the future.
Before investing in a used KUKA robot, it is important to assess its remaining lifespan. The average lifespan of a KUKA robot is approximately 80,000 to 100,000 operating hours. To determine how much life is left in the robot, ask the seller about the total operating hours and compare it to the average lifespan. Additionally, consider the age of the robot and the availability of replacement parts, as these factors can also impact the robot's remaining lifespan.
Proper documentation and certifications are crucial when purchasing a used KUKA robot. Ensure that the seller provides the original robot manuals, any applicable software licenses, and maintenance records. Certifications, such as ISO or CE, are also important as they indicate compliance with industry standards and regulations. Lack of proper documentation can lead to difficulties in integrating the robot into your production line and may result in increased downtime and costs.
One of the key factors to consider when buying a used KUKA robot is the availability of essential spare parts. Since used robots may require more frequent maintenance and repairs, having access to spare parts is crucial for keeping the robot operational. Research the availability of spare parts for the specific KUKA robot model you intend to purchase and confirm that they can be easily sourced when needed. This will help avoid costly downtime and ensure the smooth operation of your production line.
KUKA robots have long been a staple in the automotive manufacturing industry. They are utilized in various stages of the production process, including welding, assembly, painting, and quality control. The high precision and flexibility of KUKA robots make them ideal for tasks such as spot welding, where accuracy and consistency are crucial for optimal results. The use of KUKA robots in automotive manufacturing greatly enhances productivity and reduces production costs, contributing to a more efficient and competitive industry.
The aerospace industry also benefits from the integration of KUKA robots. These robots are employed in tasks such as drilling, riveting, and composite layup, where precision and repeatability are of utmost importance. Additionally, KUKA robots can be used in the inspection and testing of aerospace components, ensuring the high quality and safety standards required in this industry are met. The use of KUKA robots in the aerospace sector leads to increased production efficiency, reduced lead times, and improved overall quality.
In the electronics and semiconductor production industry, KUKA robots are used for tasks such as pick-and-place, assembly, and inspection. Their high precision and speed are essential in handling delicate electronic components, minimizing the risk of damage and ensuring consistent product quality. Furthermore, KUKA robots can be easily adapted to the rapidly changing technological landscape of this industry, making them an invaluable asset in maintaining a competitive edge.
The food and beverage industry has started to adopt KUKA robots for various applications, including packaging, palletizing, and processing. Their hygienic design and easy-to-clean surfaces make them suitable for use in environments where food safety is paramount. KUKA robots can handle fragile food items with care, reducing waste and ensuring the consistent quality of products. They can also perform tasks at a high speed, improving productivity and efficiency in food and beverage production lines.
Warehouse automation and logistics is another area where KUKA robots have found a significant role. They can be used for tasks such as order picking, packing, and palletizing, helping to streamline the entire supply chain process. By automating these tasks, KUKA robots can reduce human error, improve efficiency, and increase overall productivity. In addition, their adaptability and scalability make them an ideal solution for the evolving demands of the logistics industry.
In order to make the most out of your used KUKA robot, it is essential to streamline its integration with your existing production line. This can be achieved by thoroughly assessing your current production processes and identifying areas where the KUKA robot can add value. Collaborate with experienced system integrators and KUKA experts to develop a customized integration plan that takes into account the specific requirements and capabilities of your production line. Ensure that the robot's workspace is carefully mapped out to optimize its movements and interactions with other equipment, thus enhancing overall productivity and efficiency.
Software updates play a crucial role in maximizing the performance of your used KUKA robot. Regularly updating the robot's software ensures that it is equipped with the latest features and improvements, ultimately enhancing its capabilities and efficiency. Keep a close eye on official KUKA channels and resources for any software updates or patches that may be released. Apart from updating the robot's native software, it is also important to consider upgrading any third-party software used in conjunction with the KUKA robot, such as simulation or programming tools, to ensure seamless operation.
To ensure the long-term reliability and efficiency of your used KUKA robot, it is vital to implement a comprehensive preventive maintenance schedule. This involves periodically inspecting the robot's mechanical components, such as its motors, gears, and bearings, as well as its electrical systems and connections. Regularly lubricating the robot's joints and replacing worn-out parts can significantly extend its lifespan and maintain its performance. Be sure to consult the robot's maintenance manual and follow KUKA's recommended maintenance practices to prevent potential issues and costly downtime.
A well-trained workforce is key to maximizing the efficiency of your used KUKA robot. Invest in comprehensive training programs that enable your employees to effectively operate, program, and maintain the robot. This includes training on safety protocols, troubleshooting, and routine maintenance tasks. Encourage your employees to participate in ongoing learning opportunities, such as webinars and workshops, to stay informed about the latest best practices and innovations in KUKA robot technology. By empowering your workforce with the necessary skills and knowledge, you can ensure the long-term success and efficiency of your KUKA robot implementation.
When incorporating a used KUKA robot into your production line, it is crucial to ensure the safety of your workforce. Installing appropriate safety equipment and barriers is essential to prevent accidents and protect workers from potential hazards. Some common safety measures include perimeter fencing, safety light curtains, and emergency stop buttons. It is also recommended to provide sufficient workspace between the robot and human operators to minimize the risk of collisions.
To maintain a safe work environment, it is important to carry out regular safety inspections and risk assessments. These evaluations should cover all aspects of the robot's operation, including mechanical integrity, electrical systems, and software stability. Risk assessments help identify potential hazards and determine the appropriate mitigation measures to reduce the likelihood of accidents. It is also advisable to involve the entire team in these assessments to ensure that everyone is aware of potential risks and understands their role in maintaining a safe workspace.
Establishing clear safety protocols is essential for ensuring the safe operation of your used KUKA robot. These protocols should outline the proper procedures for interacting with the robot, such as when and how to approach the robot, what tasks can be performed by human operators, and how to respond in case of an emergency. Training your workforce on these protocols is crucial for creating a culture of safety and ensuring that everyone understands their responsibilities when working with the robot.
Different industries have specific safety regulations that must be adhered to when using robotic systems like KUKA robots. It is essential to familiarize yourself with the relevant safety standards for your industry and ensure that your used KUKA robot complies with these requirements. This may involve implementing additional safety features, obtaining necessary certifications, or modifying the robot's operation to align with industry guidelines. By complying with these regulations, you can minimize the risk of accidents and promote a safe and secure work environment.
When considering the purchase of a used KUKA robot, it's essential to explore the various financing options available. Some common methods include outright purchase, leasing, and financing through banks or specialized equipment financing companies. It's crucial to assess your company's financial situation and needs to choose the best option. Leasing can be a cost-effective way to acquire a KUKA robot without a significant upfront investment, while financing allows spreading the cost over a period, thus alleviating the initial financial burden.
To estimate the return on investment (ROI) of implementing a used KUKA robot, it's important to consider factors such as the cost of acquisition, integration, maintenance, and potential productivity improvements. Start by calculating the cost savings due to increased throughput, reduced labor costs, and improved product quality. Then, subtract the total investment, including purchase, integration, and maintenance costs, from the total cost savings to determine the net benefit. Finally, divide the net benefit by the total investment to calculate the ROI.
Determining the total cost of ownership (TCO) for a used KUKA robot involves considering several factors. These include the initial purchase price, transportation and installation costs, necessary software and hardware upgrades, ongoing maintenance and repairs, spare parts, energy consumption, and any associated training costs. By assessing and quantifying these expenses, you can gain a clearer understanding of the long-term financial implications of implementing a used KUKA robot in your production line.
KUKA robots can offer significant cost savings in various ways. Some potential areas for savings include reduced labor costs due to automation, increased production efficiency, and improved product quality, resulting in fewer defects and waste. Additionally, KUKA robots can reduce downtime and maintenance costs through their reliability and built-in diagnostic capabilities. By identifying and quantifying these cost savings, you can better evaluate the financial benefits of incorporating a used KUKA robot into your operations.
A small manufacturing firm specializing in automotive parts was struggling with outdated manual production methods and decided to invest in a used KUKA robot. They were able to purchase a pre-owned KR 16 L8-3 model at a reduced cost, which was ideal for their requirements. The company successfully integrated the used KUKA robot into their production line, resulting in increased productivity, reduced labor costs, and improved product quality. The firm was able to expand its operations and enter new markets due to the efficiency gains provided by the used KUKA robot.
In the creative sector, KUKA robots have been utilized in various groundbreaking ways. One noteworthy example is a theater production that employed a used KUKA robot as a central element of their stage design. The robot was programmed to move and interact with the actors, creating a unique and dynamic performance. Another example is an artist who used a KUKA robot to create large-scale sculptures. The precision and flexibility of the KUKA robot enabled the artist to produce complex and intricate artwork that would be difficult to achieve by hand.
A company in the food and beverage industry faced many obstacles when integrating a used KUKA robot into their production line. Their initial challenges included ensuring the robot met hygiene standards, adapting the robot's end-effector for handling delicate food items, and integrating the robot with existing equipment. Through collaboration with KUKA support and third-party integrators, the company was able to overcome these issues and successfully implement the used KUKA robot. As a result, the company experienced increased efficiency, reduced waste, and improved product consistency.
Several key lessons have emerged from successful KUKA robot implementations across diverse industries. First, thorough research and analysis of the specific needs and requirements of the industry are crucial in selecting the right KUKA robot model. Second, collaboration with experienced integrators and KUKA support can help overcome any challenges during the implementation process. Third, investing in proper training for employees to operate and maintain the robot is essential to ensure its long-term effectiveness. Lastly, periodic evaluations of the robot's performance and maintenance needs can help optimize its efficiency and extend its lifespan.
In the coming years, KUKA robot technology is expected to witness significant advancements, driven by breakthroughs in areas such as sensing, actuation, and control. Some of the primary emerging trends include improved human-robot collaboration, the integration of advanced vision systems, and the development of lightweight robot designs. These enhancements will enable KUKA robots to perform tasks with higher precision, agility, and versatility, thereby opening up new possibilities for their application across a broad range of industries.
Artificial intelligence (AI) and machine learning are playing an increasingly important role in the development and operation of KUKA robots. By incorporating AI-driven algorithms, KUKA robots can autonomously learn and adapt to their environment, optimize their performance, and make data-driven decisions. Machine learning techniques enable KUKA robots to recognize patterns, predict trends, and generate insights, which can be used to enhance efficiency, reduce downtime, and drive innovation in industrial processes.
The used KUKA robot market is expected to grow steadily in the coming years, as more companies recognize the cost savings and operational advantages of incorporating used robots into their production lines. The increasing availability of refurbished and certified pre-owned KUKA robots, coupled with enhanced support and training services, will make it easier for businesses to adopt and integrate these advanced automation solutions. Moreover, as KUKA continues to develop new robot models and features, the used robot market will benefit from a steady influx of high-quality, off-lease equipment.
Beyond traditional manufacturing sectors, KUKA robots are poised to make a significant impact in new and emerging industries. Key areas of opportunity include renewable energy, where KUKA robots can assist in the assembly and maintenance of solar panels and wind turbines; healthcare, where they can perform tasks such as patient handling, rehabilitation, and surgical assistance; and agriculture, where KUKA robots can support precision farming practices by performing tasks like planting, harvesting, and crop monitoring. As technology continues to evolve, KUKA robots will undoubtedly find new applications and contribute to the growth and innovation of various industries.
The average lifespan of a KUKA robot typically ranges from 10 to 15 years, depending on factors such as usage intensity, maintenance practices, and the specific model. Regular preventive maintenance and proper usage can help extend the robot's lifespan, ensuring a higher return on investment.
Yes, used KUKA robots can be used in cleanroom environments, provided they meet the necessary cleanroom standards. Some KUKA robot models are specifically designed for cleanroom applications and have features such as sealed joints, smooth surfaces, and specialized materials to minimize particle emissions. Make sure to verify the robot's cleanroom compatibility before purchasing.
Common maintenance issues with used KUKA robots include wear and tear on mechanical components, such as gears and bearings, cable fatigue, and the need for lubrication. Regular preventive maintenance, including inspection, cleaning, and lubrication, can help minimize these issues and ensure the robot's optimal performance.
KUKA robots generally require maintenance every 10,000 to 30,000 hours of operation, depending on the model and usage intensity. It is essential to follow the manufacturer's recommended maintenance schedule and guidelines to ensure the robot's reliability and longevity.
Yes, used KUKA robots can be integrated with non-KUKA equipment, such as grippers, conveyors, and vision systems, using standardized interfaces and communication protocols. However, it is crucial to verify compatibility and consult with an integration specialist to ensure a seamless integration process.
Purchasing a used KUKA robot comes with some risks, such as the potential for hidden mechanical or electrical issues, lack of proper documentation, and limited availability of spare parts. Mitigate these risks by thoroughly inspecting the robot, checking for certifications, and ensuring that essential spare parts are available.
Support for used KUKA robots includes technical assistance, spare parts, and training from KUKA and its authorized partners. Additionally, online forums, user groups, and third-party service providers can offer valuable resources and support to help you get the most out of your used KUKA robot.
Yes, used KUKA robots can be upgraded with new features and capabilities, such as software updates, additional axes, and improved sensors. However, it is essential to consult with a KUKA specialist or authorized partner to determine the feasibility and compatibility of these upgrades for your specific robot model and application.