Boost efficiency, precision, and safety with the right industrial robotics solutions
Robotic Arms and Industrial Robots: Key Insights
Industrial robots and robotic arms are vital in modern manufacturing and logistics. Understanding these systems can enhance productivity and safety. Phoenix offers automation solutions with new and refurbished robotic arms and can assist in selecting the right robot system for your project.
Our Robotic Arms & Industrial Robots Solutions
At Phoenix Robotics, we provide end-to-end solutions for industrial automation, offering robotic arms and industrial robots that transform manufacturing, logistics, and production operations. From consultation to integration, our expertise ensures your investment delivers maximum productivity.
Robotic Arm Selection & Integration
- Wide range of indutrial robots
- Custom end-effectors for welding, painting, assembly, packaging, and material handling
- Tailored integration with existing production lines
System Design & Consultation
- Workflow analysis to identify areas for automation
- Design turnkey robotic solutions for efficiency and safety
- Simulation of production lines before deployment
- Complete PLC and SCADA integration for precise control
- Robot programming for complex tasks and high-speed production
- Connectivity with existing industrial systems
Maintenance, Support & Training
- Regular maintenance and calibration for robots
- Remote and on-site support to minimise downtime
- Training for operators on safe and efficient robotic use
With 30 years of experience, we provide industrial automation systems. Our turnkey robotic arm solutions cover everything from complete assembly line robots to single robotic cells. Are you looking to install new or certified second-hand robotics or refurbished robotics? Let us assist you with our top-notch services.
What Are Robotic Arms & Industrial Robots?
Robotic arms and industrial robots are machines designed to perform tasks in manufacturing settings. They enhance productivity, quality, and safety by executing tasks accurately and consistently.
What Is a Robotic Arm?
A robotic arm is a mechanical device that simulates the movement of a human arm. It has joints and links that allow for controlled movement across various axes. Robotic arms are widely used for: Welding, painting, assembly, pick-and-place operations, and packaging.
They can have different end-effectors, like grippers or spray guns, making them adaptable.
What Is an Industrial Robot?
An industrial robot is a broader category that includes robotic arms and other automated systems for industrial use. These robots operate under programmed instructions for high-precision production.
They are often integrated with systems like PLC, SCADA, and safety controls for complete automation.
Key Differences Between Robotic Arms & Industrial Robots
- Robotic arms are a specific type of industrial robot that focuses on movement
- Industrial robots include robotic arms and other automated systems
- All robotic arms are industrial robots, but not all industrial robots are robotic arms
Components of Robotic Arms
Industrial robots and robotic arms are transforming the way we manufacture and manage logistics. They perform tasks such as welding, painting, and assembly with precision while handling repetitive or hazardous jobs. Contact us to help you find the right solution.
Key Components of Robotic Arms
- Base: Supports the arm, attached to a stable structure, built to handle vibrations and loads.
- Joints (Axes): Allow movement and positioning, typically featuring 4 to 6 axes for flexibility.
- Actuators and motors: Enable joint movement, ensuring speed and precision for smooth robotic motion.
- Arm Links (structure): Connect joints and define reach, made from lightweight materials.
- End-Effector: The tool at the wrist, which may include grippers or spray guns.
- Sensors: Provide feedback for accuracy and safety, using positions and encoders.
- Robot Controller: The brain of the arm, executing programs and managing tasks.
- Power Supply and cabling: Connects components, supplying power and enabling data exchange.
Importance of Knowing Robotic Arm Components
- Assists in choosing the right robot for your needs
- Enhances system integration and reliability
- Minimizes downtime with improved maintenance planning
- Boosts performance and return on investment
How Robotic Arms Work
- Controllers & PLCs: They program the movement and tasks.
- Actuators & Motors: They move the joints and tools.
- Sensors: They detect position, force, and objects for accuracy.
- End-Effectors: Tools like grippers, welders, and suction cups that complete tasks.
Types of Robotic Arms
- Articulated Robots: Have flexible joints like a human arm; good for welding, painting, and assembly tasks.
- SCARA Robots: Move horizontally; fast and accurate, suitable for electronics and pick-and-place tasks.
- Delta Robots: Fast, spider-like robots used for packaging and sorting items.
- Cartesian Robots: Move in straight lines; great for CNC machining and 3D printing.
- Collaborative Robots (Cobots): Safe to work with humans; used in small assembly or packaging jobs.
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Applications of Robotic Arms
- Automotive: Used for welding, assembly, and painting.
- Electronics & PCB: Used for precise assembly and testing.
- Food & Beverage: Used for packaging, sorting, and palletizing.
- Pharmaceuticals: Used for dispensing, filling, and laboratory automation.
- Warehousing & Logistics: Used for picking, sorting, and transporting items.
Challenges & Considerations of Industrial Robots
- High initial cost: Robots are expensive, but the return on investment can be quick.
- Complex integration: Involves programming, PLC systems, and potentially custom tools.
- Maintenance: Regular servicing is essential to prevent downtime.
- Safety: Industrial robots must be properly fenced or monitored to avoid hazards.
Benefits of Industrial Robots
- Boost productivity and efficiency
- Provide high precision and consistency
- Function in dangerous or extreme conditions
- Lower labor costs in the long run
- Enable continuous production around the clock
ROI Factors & Future Developments
- Assess robot investment against labor savings.
- Think about speed, quality improvements, and fewer human errors.
- Future Developments: AI-based robotic arms, collaborative robots in small businesses, vision systems, and smart integration
Key Factors
Robotic Integrator
- Robot Commissioning
- Programming Robotic Arms
- Robotic Training Courses
- Robotic Simulations
- Designing Robot Arm Cells
Before Buying
Types of Robots
Transform
Considerations for Automating Robotic Arms
When considering automation system providers, it’s important to research their reliability, reputation, and customer reviews. Engaging with industry experts and trusted sources for recommendations can also be beneficial in finding the most suitable automation systems for your needs. Additionally, it’s crucial to note that not all used robots for sale are certified, so contacting your integrator to ensure proper function is necessary.
Criteria for Choosing Robot Arms in Manufacturing
This compares robot arms for tasks like welding, painting, assembly, and palletizing, highlighting key technical requirements and example features. This is relevant for industries such as automotive, metal fabrication, electronics and general manufacturing.
| Criterion | Importance in Manufacturing |
|---|---|
| Payload | Determines how much weight the robot can carry, including tools and materials. Heavy tasks like welding or moving large items require higher payloads, while lighter jobs like painting need less. |
| Reach / Working Envelope | Influences the area the robot can operate in, the size of parts, and how they are placed. A longer reach can reduce the number of robots needed. |
| Axes / Degrees of Freedom (DOF) | Typically, 6-axis is used for welding, painting, and complex tasks; 4-axis may suffice for simpler tasks like picking and placing items. |
| Repeatability / Accuracy | Critical for welding and painting (±0.05 mm to ±0.1 mm), moderate for assembly based on precision requirements, and less critical for palletizing. |
| Speed / Cycle Time | High Speed is essential for palletizing and assembly. Painting needs steady movement, while welding requires moderate but correct speeds. |
| Environment Protection | Welding: shields from spatter and heat; Painting: manages solvents and overspray; Palletizing: handles dust and debris. |
| Footprint & Mounting | Can be installed on the floor, ceiling, inverted, or wall depending on the design. A small footprint is important for upgrades. |
| Integration & Flexibility | Must connect with PLCs, conveyors, sensors, vision systems, and other automation equipment. Offline programming and simulation are very beneficial. |
| Service & Lifecycle | Reliability, ease of maintenance, global support, and availability of spare parts are important for efficient manufacturing. |
Examples:
- Fanuc M-410iC palletising series.
- ABB IRB 460 / IRB 660.
- KUKA KR 40 PA / KR 120 R3200 PA.
- Best for logistics and end-of-line tasks.
Requirements for Robotic Arm Processes
A) Robotic Arms for Welding (Arc, Spot, Laser Welding)
Requirements:
- Sturdy joints and high payload for welding torch and cables.
- 6-axis movement for intricate welding paths.
- High precision and accuracy in path performance.
Examples:
- KUKA KR Arc / KR Quantec welding variants.
- Yaskawa Motoman MA/AR series (built specifically for arc welding).
- ABB IRB 1600/2600 with Foundry/Weld protection
- Use in automotive body shops and heavy fabrication.
B) Robotic Arms for Painting (Spray Painting / Coating)
Requirements:
- Medium payload (spray gun and cables) with continuous motion.
- Long reach for covering extensive surfaces.
- Hollow arms for routing cables/hoses.
- Options for ceiling or wall mounting to optimize floor space.
Examples:
- ABB IRB 5500 or 5400 Paint.
- Fanuc P-series (P-350iA etc.).
- Dedicated spray robots from Dürr, Yaskawa MPX.
- Ensures reliable coating quality with minimal vibration.
C) Robotics Arms for Assembly / Material Handling
Requirements:
- Medium payload (10–100 kg) depending on part size.
- 6-axis or 7-axis capabilities for advanced positioning.
- Requires integration with force sensors, and conveyors.
- Adaptable end-effectors for multi-model assembly.
Examples:
- ABB IRB 1200 / IRB 1600 / GoFa
- KUKA KR AGILUS / LBR iiwa
- FANUC LR Mate 200iD / CRX Series
- Motoman GP Series / HC Collaborative
- KUKA KR 6 R700: 6 kg capacity, 6-axis for small assembly tasks.
- Used in electronics, automotive, packaging, and machine tending.
D) Robotic Arms for Palletising / Packaging
Requirements:
- High payload (50–150 kg) with speeds over 2,000 cycles/hour.
- 4-axis typically sufficient for pick-and-place.
- Compact design for limited spaces.
- Easy conveyor and software integration.
Key Elements to Remember
- Customisation is important: Different manufacturing processes need specific changes based on payload capacity, operational range, accuracy, and environmental factors.
- Integration matters: The success of automation relies heavily on how well robots work with tools, conveyors, vision systems, and programmable logic controllers (PLCs).
- Speed and precision optimization: Various applications require specific strategies; palletizing focuses on speed, painting emphasizes quality and consistency, while welding prioritizes strength and accuracy.
- Select robot arms based on the environment: Choose robots suited for the specific environment, then assess the process. Different manufacturing spaces have distinct hazards, ratings, and mechanical requirements, which often dictate the type of robot that can be used there.
Robotic Arm Turnkey Solutions
Remember to research the reliability, reputation, and customer reviews of automation system providers before making a decision. It’s also beneficial to engage in discussions with industry experts and seek recommendations from trusted sources to ensure you find the most suitable automation systems for your specific needs. Additionally, remember that not all used robots for sale are certified. Contact your integrator to ensure it works properly.
Robotic Arms Buying Guide
Robotic arms are useful tools in manufacturing. Understanding their components, types, and technologies can help businesses improve efficiency and productivity. Staying updated on future trends will help organizations keep up with technological changes. Phoenix Robotics can assist your company in maintaining high automation standards.
Implementation Steps
- Needs Assessment: Determine tasks suitable for integration with a robotic arm.
- Specification Development: Define the requirements, such as load capacity, reach, precision, and speed.
- Selection: Choose the appropriate robotic arm based on the specifications.
- Design and Integration: Develop the layout for integrating the robotic arm into the existing workflow.
- Programming: Write and test programs to control the robotic arm for specific tasks.
- Installation: Set up the robotic arm and ensure it is properly anchored and connected.
- Training: Train operators and maintenance staff on the use and upkeep of the robotic arm.
- Maintenance: Establish a regular maintenance schedule to ensure longevity and optimal performance.
Robotic Arms: Challenges & Considerations
- Cost: Initial investment can be high, including the cost of the arm, installation, and programming.
- Complexity: Requires skilled personnel for programming and maintenance.
- Integration: Ensuring seamless integration with existing systems and workflows.
- Safety: Implementing safety measures to prevent accidents and injuries.
- Flexibility: Designing systems that can adapt to changing production needs.
Best Practices
- Start with Clear Objectives: Define the goals and expected outcomes of using robotic arms.
- Pilot Projects: Begin with small-scale implementations to demonstrate feasibility and benefits.
- Collaborate with Experts: Work with robotic specialists for system design and integration.
- Focus on Training: Ensure comprehensive training for all personnel involved.
- Continuous Monitoring and Improvement: Regularly monitor performance and make necessary adjustments.
The ROI of robotic arm integration for SMEs
Robotic arms can quickly deliver returns for small and medium-sized businesses, often within months to a couple of years. Basic systems can provide paybacks in under a year for tasks that are repetitive and labour-intensive; more advanced systems can still yield returns over several years by improving efficiency, reducing waste, and operating continuously.
What “ROI” means
Always include payback and NPV (5 years is a common timeframe for small and medium-sized enterprises). Use clear metrics for financial evaluation:
- Simple Payback (years) = Total project cost ÷ Annual cash benefit.
- Return on Investment (percentage) = (Total net cash benefit over X years − Cost) ÷ Cost.
- Net Present Value (NPV) = total discounted future net cash flows minus upfront cost (use a suitable discount rate).
- Internal Rate of Return (IRR) — discount rate where NPV = 0 (useful for comparing projects).
Example (Calculation Details)
These figures represent the costs and benefits of using a small production robot arm or cobot) for assembly.
- Robot and tooling: £30,000
- Integration and safety: £10,000
- Total investment = £40,000.
- Annual benefits:
- Labour savings: £35,000
- Reduced scrap: £10,000
- Increased productivity: £5,000
- Total annual benefit = £50,000.
- Payback = £40,000 ÷ £50,000 = 0.8 years (approximately 9.6 months).
- NPV (5 years, 10% discount rate): Estimated NPV ≈ £149,500 (indicates strong investment).
Checklist for SMEs before buying a robotic arm
- Outline the process: cycles per day, takt time, defect rate, and labor cost per operator (all in £ and hours).
- Quantify the benefits: labour savings, reduced overtime, lower scrap, and increased sales.
- Obtain 2–3 quotes and request case studies from vendors with similar throughput and parts. (Vendors typically share examples of cost payback.)
- Include costs for integration, training, maintenance, and software licensing.
- Conduct a 3–5 year NPV analysis with a realistic discount rate (8–12% for SMEs). Present the simple payback and the impact of ±20% variations in benefits.
- Prepare for spare parts and either a maintenance contract or develop in-house skills.
Things to Consider / Questions to Ask
- Does the quote include end-of-arm tooling like grippers or suction cups?
- Is integration included for software, PLC/IO, safety, and system compatibility?
- What payload and reach do you require (excess capacity can be costly)?
- Are safety systems like cages and sensors included in the price?
- What are ongoing costs for maintenance and operation (spare parts, downtime, energy)?
- If considering a used arm, check its age and support availability.
- What vendor support and training are offered?
- Evaluate the total cost of ownership (TCO), not just the purchase price.
- What is the expected delivery time and potential hidden costs?
- Can the robot perform different tasks later (flexibility minimizes risks)?
Final Take-away
If you’re a UK SME considering a robotic arm, budget as follows:
- Low-end: £15k-£30k (robot only) for basic tasks,
- Mid-range: £30k-£70k (robot only),
- Full cell/integration: £15k-£120k+ typically.
- Be prepared for integration, tooling, and safety to increase costs.
- Buying used or refurbished can lower expenses by up to 30%.
Robotic Arms Integration FAQs
Choosing between a new or used industrial robot is key to making the right purchase. We can help you choose the best option for your individual needs. Evaluate the benefits/drawbacks of both options and talk to an integrator before deciding. Choose what fits your needs best.
What types of robotic arms are available?
Robotic arms vary by configuration (e.g., Cartesian, SCARA, articulated, delta) and are chosen based on the required reach, payload, speed, and application.y.
How do you determine the right type of robotic arm for integration?
Consider the following factors when selecting robotic arms:
- Task Requirements: Analyze the specific tasks the robot will perform (e.g., welding, assembly, material handling).
- Payload and Reach: Ensure the robot can handle the weight and reach required for your applications.
- Accuracy and Speed: Evaluate the precision and speed needed for your production process.
- Workspace Constraints: Consider the size and layout of your workspace to ensure the robot fits and can reach all necessary areas.
- Integration with Existing Systems: Assess compatibility with existing machinery, software, and automation systems.
What are the key steps involved in integrating robotic arms?
Steps to integrate robotic arms:
- Needs Assessment: Identify tasks suitable for automation and define integration goals.
- System Design: Plan the layout, robot type, tooling, and safety measures.
- Programming: Develop robot programs to perform desired tasks accurately.
- Integration: Connect the robot with sensors, controllers, and other systems.
- Testing and Optimization: Validate performance, make adjustments, and optimize processes.
- Training and Deployment: Train operators and deploy the robotic system in production.
How can safety be ensured when integrating robotic arms?
- Risk Assessment: Conduct a thorough risk assessment to identify potential hazards.
- Safety Devices: Implement safety features such as emergency stops, protective barriers, and light curtains.
- Safety Standards: Adhere to relevant safety standards and regulations for robotics and industrial machinery.
- Operator Training: Provide training for operators on safe interaction with robotic systems.
- Regular Maintenance: Maintain and inspect robotic systems regularly to ensure safety and performance.
What are the steps involved in integrating a robotic arm into my system?
- Assess your needs and choose the appropriate robotic arm.
- Plan the layout and integration points within your production line.
- Install the robotic arm, ensuring it is securely mounted.
- Connect the robotic arm to power, control systems, and any required peripherals.
- Program the robotic arm for the desired tasks.
- Test the system and make adjustments as necessary.
What safety measures should be taken when integrating robotic arms?
Measures for integrating robotic arms:
- Install safety guards and barriers.
- Implement emergency stop buttons.
- Use sensors and vision systems to detect human presence.
- Adhere to industry safety standards and regulations.
How often do robotic arms need maintenance?
Regular maintenance schedules depend on usage intensity but generally include periodic inspections, lubrication, calibration, and software updates.
What are common issues faced during integration and how can they be resolved?
The common issues during integration include:
- Alignment and calibration problems: Ensure precise setup and recalibrate as needed.
- Software compatibility issues: Use compatible software versions and update firmware regularly.
- Mechanical wear and tear: Regular maintenance and prompt replacement of worn parts.
- Programming errors: Thorough testing and debugging during the programming phase.
What is the cost of integrating a robotic arm?
Costs vary widely based on the robotic arm type, features, and complexity of the integration. Initial costs include the robotic arm, installation, programming, and training.
How do I calculate the return on investment (ROI) for a robotic arm?
Calculate ROI by comparing the initial investment and ongoing costs against the savings from increased productivity, reduced labor costs, and enhanced quality. Consider the payback period and long-term benefits.
How do robotic arms communicate within an automation system?
Robots communicate via various industrial communication protocols such as Ethernet/IP, Profinet, DeviceNet, Modbus, and ROS (Robot Operating System).
How to integrate robotic arms into an existing automation system?
Integrating Robotic Arms into an Existing Automated System in These Steps:
- Assessment: Evaluate current processes to determine where robots can be beneficial.
- Design: Plan the robotic system layout, including the robot type, end effectors, and work cells.
- Simulation: Use software to simulate the robot’s tasks and interactions within the environment.
- Installation: Physically set up the robot, integrate it with other system components, and configure communication.
- Programming and Testing: Program the robot for its tasks and conduct thorough testing to ensure proper operation.
Robotic Tasks in Manufacturing
Automation has revolutionized the factory floor, with robots taking on an increasing number of tasks that require speed, precision and efficiency. This not only frees up the human workforce for more complex duties, but also leads to significant cost savings and increased productivity. In fact, according to recent statistics, the global market for industrial robots is set to reach $22 billion by 2022.
Robot Arms
Widely used in car manufacturing and electronics manufacturing to accomplish multiple tasks.
Robot Applications
From welding to packaging, robots are becoming more versatile and specialized.
Success Stories: Transforming Businesses with Robotic Arms
Discover how our integration with robotic arms has transformed operations across various industries. Join the satisfied businesses that have experienced significant boosts in efficiency, quality, and cost savings with our robotic solutions. Let us share their experiences to inspire your own automation journey!
Robotic arms are enhancing efficiency and productivity in modern operations and workflows. At Phoenix Robotics, we provide innovative solutions that enhance efficiency and significantly increase productivity in today’s fast-paced market. We guide you throughout the process.
“Being our first robot we were relying on the advice of a good reliable robot integrator who could help us along the way. With Phoenix on the team we honestly could not have asked for more. "
Why Choose Us?
Phoenix offers affordable automation solutions and can assist you in selecting the most suitable robotic arms for your project. We can help you decide between a certified reconditioned robot or a new robot, depending on your budget. Choose the most appropriate technology for your operational processes and future needs with Phoenix.
Our Robotic Arm Objectives
Phoenix has extensive experience in integrating automation systems that are easy to incorporate into existing production processes. We work with clients to provide various levels of integration, including full turnkey robotic arm solutions, hardware upgrades, software improvements, robot/PLC programming, and control panel fabrication. These are just a few of our many available services.
Work Hard to Succeed
Our engineers meticulously plan and schedule the entire process from start to finish, overseeing every detail and conducting quality checks throughout the various phases of the project. Phoenix will communicate with you at each stage and keep you informed.
“We used phoenix to conduct the installation of 2 second-hand robotic arms and provide basic training for users. Kev was Extremely helpful and knowledgeable from start to finish and happy to answer any questions I have had since. Highly recommended. "
Retrofitting Production Lines with Robotic Arms
1. Production Line Assessment
Analyse workflow and identify automation opportunities. Consider space and safety for robot installation.
2. Selecting Robots
Choose robot type based on payload and speed. Ensure end-of-arm tooling compatibility.
3. Integration Planning
Design robotics layout to optimize workflow. Plan robot placement and establish communication protocols.
4. Programming and Simulation
Simulate operations for optimization and validate cycle times. Train operators on programming basics.
5. Installation & Commissioning
Install robots, connect to PLCs, and calibrate to performance standards.
6. Training and Maintenance
Train staff on operations and safety. Schedule maintenance and monitor production for improvements.
Design of Robotic Arms
An integrator deals with most robot manufacturers because they know where to find a suitable robot for your project, whether it is a new or refurbished robot. They will help you find the best robot for sale that suits your needs.
