FAQs
All
Service-Related FAQs
Product-Related FAQs
Industrial Robot Selection FAQs
Product Usage FAQs
Maintenance & Troubleshooting FAQs
After-Sales & ROI FAQs

All

How to choose the right robot?

Industrial Robot Selection FAQ covers key questions throughout the entire process, including application matching, core parameter calculation, model selection, environmental adaptation, cost‑benefit analysis, and more.With over 10 years of industry experience, RBTC provides practical answers to help you accurately match production requirements and avoid common selection pitfalls. 1. Basic Selection Principles: Clarify Core Requirements Q1: What Is The First Step In Selecting An Industrial Robot? What Information Must Be Clarified First? A1: The first step is to define the robot’s task and production capacity requirements, which form the foundation of selection and prevent over‑specification or under‑performance. Key information includes:① Specific application scenario (e.g., welding, handling, injection molding);② Target production capacity and cycle time;③ Working envelope and reach requirements;④ Workpiece weight and dimensions. Q2: What Are The Core Requirements For Industrial Robots In Different Applications? A2: Requirements vary significantly by scenario:Welding: Prioritize high repeatability, torch compatibility, and high protection ratings to resist weld spatter and dust.Handling/Palletizing: Focus on payload capacity and working radius, with emphasis on speed to improve cycle times.Precision assembly: Require high repeatability and flexible path planning; prioritize 6‑axis or SCARA robots.Painting/Coating: Select explosion‑proof robots (IP65 or higher) with smooth motion to prevent uneven coating.Injection molding: Require fast and stable pick‑and‑place performance, synchronized with mold open/close strokes, and support quick mold changeover.CNC machine tending: Focus on handling cycle time and stability, with support for rapid fixture switching for multiple workpiece sizes.Stamping: Require high payload and shock resistance, synchronized with stamping frequency, and IP65+ dedicated models with anti‑drop grippers.Metal bending: Require high repeatability and stable motion; 6‑axis robots are preferred for precise coordination.Grinding/Polishing: Focus on payload and path accuracy; select dust‑resistant models with compliant tools and force‑feedback capabilities. Q3: How To Determine Robot Speed And Cycle Time Based On Production Capacity Goals? A3: First calculate the required cycle time based on the target production capacity, then select a robot with matching speed performance.In practical industrial applications, it is recommended to reserve 10%–20% cycle time redundancy to accommodate future capacity increases and avoid production bottlenecks caused by demand fluctuations. 2. Core Parameter Matching: Payload, Reach, and Precision Q4: How To Correctly Calculate The Required Payload Capacity? Should A Safety Margin Be Reserved? A4: Payload must be calculated based on total weight: workpiece weight + fixture weight + end‑effector weight (e.g., welding torch, suction cup).For example, handling a 5 kg workpiece with a 2 kg fixture requires a robot with payload ≥ 7 kg.It is recommended to add an additional 20%–30% payload margin to avoid accelerated wear caused by long‑term full‑load operation. Q5: How To Determine The Required Working Radius (Reach) Of An Industrial Robot? A5: Measure the maximum distance of the working area, including workpiece pick‑and‑place positions and equipment spacing.For example, if two stations are 3 meters apart, a robot with reach ≥ 1.5 meters can cover both ends when installed in the middle.If the working area is irregular, a 6‑axis articulated robot can compensate for limited reach through flexible path planning. Q6: How To Select Repeatability Accuracy? Is Higher Always Better? A6: Repeatability refers to the robot’s ability to return to the same position repeatedly. It is a key indicator of positioning precision.Accuracy does not need to be overly high; select based on requirements (higher accuracy usually means higher cost):① General handling and palletizing: ±0.1 mm is sufficient.② Welding and simple assembly: ±0.02 mm to ±0.05 mm is required. 3. RBTC Robot Type Selection: Matching Scenario Requirements Q7: What Are The Differences Between 6‑Axis, 4‑Axis, And SCARA Robots? Which Scenarios Are They Suitable For? A7:① 6‑axis industrial robots: High flexibility, capable of complex trajectories; suitable for welding, assembly, painting, and multi‑purpose production lines.② 4‑axis robots: Simple structure, lower cost, used for machine tending and palletizing; fast speed and easy maintenance.③ SCARA robots: High accuracy and speed in planar motion; ideal for precision assembly and labeling in the electronics industry, with a small footprint. Q8: Why is a servo manipulator (IMM Robot) recommended for injection molding? A8: Injection molding servo manipulators offer fast response, precise and stable pick‑and‑place performance, and can be accurately synchronized with mold open/close cycles. They support quick changeover for different molds.They efficiently handle part removal, in‑mold inserts, product trimming, and other specialized tasks, making them more suitable for injection molding than general‑purpose robots. Q9: What Scenarios Are Collaborative Robots Suitable For? What Advantages Do They Have Over Traditional Industrial Robots? A9: Collaborative robots feature safety functions such as force feedback and collision detection, and will stop immediately if they come into contact with a human. They do not require separate safety fencing.They are suitable for small‑batch, multi‑variety production, confined workspaces, or scenarios requiring human‑robot collaboration.Advantages include high safety, flexible deployment, reduced floor space, and lower safety protection costs. Q10: What Are The Applications And Core Advantages Of Collaborative Palletizing Robots?A10:Applications: Small‑ to medium‑batch palletizing, warehousing and logistics in tight spaces, or end‑of‑line palletizing.Core advantages: Combine collaborative safety with high palletizing efficiency, include collision detection, require no safety fencing, and offer flexible deployment while ensuring operator safety. 4. Environment, Safety, and Usability: Keys to Long‑Term Stable Operation Q11: What Special Requirements Do Different Workshop Environments Impose On Industrial Robots? A11:① High/low temperature environments: Select robots with a wide temperature range to avoid component failure.② Dust/humidity environments: Select models with IP65 or higher protection and ensure proper sealing.③ Explosion‑proof environments (painting, chemical): Must use explosion‑proof certified robots to prevent electrical sparks. Q12: How To Configure Safety Protection For Industrial Robot Operations? A12: Configure according to the scenario:① Traditional industrial robot scenarios: Install safety fencing and light curtains to prevent personnel from entering the work area.② Collaborative scenarios: Use collaborative robots that rely on their own safety functions to ensure human‑robot collaboration without additional protective structures. Q13: For SMEs, How To Reduce Robot Training And Maintenance Costs? A13:① Programming difficulty: Choose models with graphical programming and easy‑to‑use teach pendants to reduce training costs.② Maintenance convenience: Select manufacturers with easy‑to‑source spare parts and modular designs.③ Brand service: Choose a brand with comprehensive after-sales service (such as RBTC) to ensure 7×24-hour technical support and timely spare parts supply. 5. Cost and ROI: Full Lifecycle Calculation Q14: Is It Enough To Only Look At The Robot’s Purchase Price? What Other Costs Should Be Considered? A14: No. Industrial robot selection requires calculating the total cost of ownership (TCO):① Initial costs: Robot price, fixture customization, installation and commissioning, safety protection setup.② Operating costs: Energy consumption, spare parts replacement, maintenance, and operator training.Comprehensive calculation ensures optimal investment value. Q15: What Is The Typical ROI Period For Industrial Robots? How To Shorten It? A15: The typical ROI period is 1–3 years.To shorten ROI, focus on accurate scenario matching:Select a robot that fits production needs to improve efficiency and reduce labor costs.At the same time, choose models with easy maintenance and low energy consumption to minimize operating costs. Q16: Why RBTC Helps You Choose Better? A16: RBTC is one of China’s most professional industrial robot manufacturers and suppliers, dedicated to providing cost‑effective products and customized solutions.Advantages:① High cost‑performance with lower initial investment;② Flexible customization for SME production scenarios;③ Fast after‑sales response (7×24 support) and timely spare parts supply;④ Mature technology with core parameters suitable for most industrial applications;⑤ International on‑site service capabilities, including installation, commissioning, and full‑process implementation. Contact us Need help selecting the right industrial robot for your production line?Contact RBTC for application‑based selection support and system integration.

What Is the Minimum Order Quantity (MOQ) for Industrial Robots?

Q1: What Is The Typical Minimum Order Quantity (MOQ) For Industrial Robots? A:There is no universal MOQ standard for industrial robots. The minimum order quantity typically depends on the product type, level of customization, and the supplier’s production model.In most cases:Standard industrial robots (such as 6-axis or 4-axis handling and palletizing robots) are available with an MOQ of one unit;Customized industrial robots usually support one-unit orders for common application-level customization, while complex integrated systems may require project evaluation;Robot accessories and spare parts are often available with a one-piece MOQ.Today, one-unit MOQ has become common practice across the industry. Q2: What Is The MOQ For RBTC Industrial Robots? A:RBTC supports a one-unit MOQ for industrial robots and related accessories.This policy applies to:Standard industrial robot models;Application-specific customized industrial robots;End-of-arm tooling, protective components, and common spare parts.This approach is well suited for single-station automation upgrades, small-scale production improvements, and equipment replacement scenarios. Q3: Why Does The MOQ Vary Among Industrial Robot Manufacturers? A :Differences in MOQ are mainly influenced by:Manufacturing and cost structure.Product and system complexity.Target customer segments.Inventory and supply chain strategies.MOQ reflects a supplier’s delivery model rather than robot performance or quality. Q4: Does order quantity affect MOQ or pricing for industrial robots? A:Order quantity generally does not change the MOQ, but it may affect pricing and delivery conditions.Common benefits of larger orders include:More competitive unit pricing.More stable production scheduling.Potential access to additional technical or service support. Q5: Does a one-unit order result in a longer delivery time?Q2: What Is The MOQ For RBTC Industrial Robots? A:Not necessarily. Delivery time depends mainly on product availability and customization complexity, not order quantity.Standard models: delivery time is similar for single-unit and bulk orders.Customized robots: lead time is driven by engineering and testing requirements. Q6:What are the advantages of a one-unit MOQ for small and medium-sized manufacturers? A :For small and medium-sized manufacturers, a one-unit MOQ offers key advantages:Lower initial investment.Ability to validate performance before scaling.Greater flexibility for low-volume, high-mix production environments.

What types of industrial robots does RBTC provide?

Q1: What Types Of Industrial Robots Does RBTC Provide? A:RBTC provides a range of industrial robots designed to support different industries and manufacturing processes.The main product types include:6-axis industrial robots for welding, assembly, complex handling, and multi-angle operations.4-axis industrial robots commonly used for high-speed handling and palletizing.SCARA robots for high-speed and high-precision planar assembly.Collaborative robots and palletizing cobots for space-limited or human–robot collaboration scenarios.Injection molding servo robots (IMM robots) for part removal and automated loading/unloading in injection molding processes.In addition to standard models, RBTC supports application-based configuration and system adaptation to match specific production requirements. Q2: What Industrial Robot Solutions Does RBTC Offer? A:RBTC offers application-focused automation solutions built around industrial robots, covering a wide range of manufacturing scenarios.Typical solutions include:Industrial robot applications for material handling, welding, palletizing, assembly, and machine tending;Application-specific robot solutions for injection molding, metal processing, and automated loading/unloading;End-of-arm tooling (EOAT) and auxiliary components such as grippers, fixtures, and protective accessories;Industrial robot system integration, including equipment coordination, installation, commissioning, and process optimization.The focus is on aligning industrial robots with real production workflows rather than deploying one-size-fits-all systems. Q3: Do RBTC Industrial Robots Support Small-Quantity Orders And After-Sales Service? A:RBTC industrial robots generally support single-unit or small-quantity orders, making them suitable for pilot projects, equipment upgrades, or partial automation of production lines.For after-sales support, RBTC provides technical assistance and spare parts support, and can offer on-site commissioning and operator training based on project requirements to ensure stable operation. Q4: How Can I Determine Which RBTC Industrial Robot Fits My Application?A:Selecting the right industrial robot typically requires evaluating several key factors:Task complexity: multi-axis and complex motions usually require 6-axis robots, while high-speed planar tasks suit SCARA robots.Space and safety requirements: collaborative robots are suitable for space-constrained or human–robot collaboration environments.Process type: injection molding often uses dedicated IMM robots, while welding and assembly commonly rely on 6-axis robots.Final selection should consider part characteristics, cycle time requirements, and factory conditions.

Can Industrial Robots Be Customized for Specific Applications?

Q1: Can industrial robots be customized for specific applications? A:Yes. Industrial robots can be customized for specific applications, which is a common approach to address complex processes and non-standard production conditions. By adjusting robot structure, protection configuration, end-of-arm tooling, control systems, and system integration, industrial robots can better match actual production requirements, improving operational stability and efficiency.RBTC provides customized solutions based on standard industrial robot platforms, helping manufacturers achieve better application matching while ensuring reliability. Q2: What aspects of industrial robots can be customized? A:Industrial robot customization typically includes:Mechanical structure and protectionAdjusting robot dimensions or protection level according to workspace, installation, or environmental conditions (high temperature, dust, humidity, explosion-proof, etc.).End-of-arm tooling (EOAT) customizationCustomizing grippers, suction cups, welding guns, polishing heads, or other specialized tools according to part shape, material, and process requirements.Control system and software optimizationOptimizing motion paths, cycle time, precision, and user interface to simplify operation.System integration and coordinationIntegrating robots with injection molding machines, CNC machines, conveyors, or inspection equipment to form a complete automated unit.RBTC usually follows a “minimum necessary customization” principle to avoid redundant features and maximize cost-effectiveness. Q3: Which applications are better suited for customized industrial robots? A:Customized industrial robots are particularly suitable for:Non-standard parts or complex processesSuch as irregular part handling or curved-surface welding/polishing where standard robots cannot reliably adapt.Special operating environmentsHigh-temperature workshops, near injection molding machines, high humidity, heavy dust, or explosion-proof areas.High-performance applicationsHigh-precision assembly, high-speed welding, or continuous stable production lines.Integrated automated production linesWhere robots must coordinate with multiple machines to achieve full-process automation. Q4: What is the typical process for implementing customized industrial robots? A:The typical process for customized industrial robots includes:Application analysis and on-site assessment;Customized solution design and technical specification confirmation;Robot and system manufacturing and programming;Factory testing and pre-commissioning;On-site installation, integration, and optimization;Acceptance, operator training, and technical handover.RBTC usually provides on-site commissioning and parameter optimization to ensure the customized solution matches the actual production line. Q5: What are the advantages and limitations of customized industrial robots compared to standard robots? A:Advantages:Precisely meets specific application requirements, improving efficiency;Better adaptation to special environments or complex processes;Reduces redundant functions, optimizing long-term operating costs.Limitations:Longer delivery time than standard models;Higher initial investment;Maintenance of custom components requires reliable service support.Decision to customize should consider production stability, service life, and ROI. Q6: What should be considered when selecting customized industrial robots? A:Key considerations:Experience of manufacturer or system provider in customization;Clear and verifiable technical specifications;Compatibility with existing equipment and future expansion;After-sales response and spare parts support;Total cost of ownership and ROI.RBTC usually assists customers in evaluating long-term costs during the solution phase to avoid future retrofit risks. Q7: Are customized industrial robots suitable for small and medium-sized enterprises (SMEs)? A:Yes, but SMEs should evaluate carefully.For stable, non-standard tasks or special operating conditions, customization can improve efficiency and reduce labor dependency.For frequently changing or simple processes, lightweight customization based on standard models may balance cost and flexibility.RBTC offers modular and phased customization solutions for SMEs to balance investment and operational flexibility.

What Level of Precision Can Industrial Robots Achieve?

Q1: What level of precision can industrial robots typically achieve? A: Industrial robot precision is mainly evaluated by repeatability and absolute accuracy, which vary depending on robot type, technical level, and application. In practical industrial use, typical precision levels include:General-purpose robots (material handling, palletizing):Repeatability typically ranges from ±0.1 mm to ±0.5 mm, sufficient for basic material handling tasks.Mid-range precision robots (welding, standard assembly):Repeatability usually falls between ±0.02 mm and ±0.1 mm, suitable for most manufacturing applications.High-precision robots (electronics assembly, micro-part handling):Repeatability can reach ±0.01 mm or better, meeting the requirements of precision manufacturing.Robot selection should focus on whether the precision meets actual process tolerances, rather than pursuing maximum specifications. Q2: What is the difference between repeatability and absolute accuracy in industrial robots? A: These are the two key precision indicators for industrial robots, with different focuses:Repeatability:The deviation when the robot repeatedly returns to the same programmed position. It reflects consistency and is the most commonly used precision metric in industrial applications.Absolute accuracy:The deviation between the robot’s actual position and its theoretical calculated position. It reflects single-position accuracy.In simple terms, repeatability measures consistency, while absolute accuracy measures positional correctness. Q3: What factors affect the actual precision of an industrial robot? A: Actual robot precision is influenced by multiple factors, including:Mechanical structure: joint transmission accuracy, rigidity, and bearing quality.Drive and control system: servo response, encoder resolution, and control algorithms.Payload and working range: operating near maximum payload or reach reduces precision.Environmental conditions: temperature changes, dust, vibration, and humidity. Q4: How do precision requirements differ by application? A: Precision requirements vary significantly depending on the process:Material handling / palletizing:Low precision demand; ±0.1 mm-level repeatability is generally sufficient.Welding / cutting:Requires consistent paths; repeatability of around ±0.05 mm is typically recommended.General mechanical assembly:Higher precision needed for alignment; ±0.02 mm-level repeatability is common.Precision electronics assembly:Extremely high precision required; high-precision robots are necessary. Q5: Are high-precision industrial robots always better? A: No. High-precision robots usually come with higher purchase costs, more complex commissioning, and increased maintenance requirements.If the application does not require high precision, choosing a high-end robot may result in unnecessary cost without performance benefits.The key principle is to balance precision, cost, and long-term stability based on actual production needs. Q6: How can industrial robot precision be maintained in production? A: Maintaining stable precision requires proper selection, installation, and maintenance:Avoid long-term operation at maximum payload or reach;Ensure a rigid and level installation base;Perform regular calibration and preventive maintenance;Implement protective measures in harsh environments such as high temperature, dust, or humidity. Q7: How do I know if a robot’s precision meets my production requirements? A: Robot precision should be compared against process tolerance, part consistency, and quality standards.If the robot’s repeatability is tighter than the required process tolerance, it is generally sufficient for stable production.

What is the payload capacity of an industrial robot?

Q1: What Is The Payload Capacity Of An Industrial Robot? A:The payload capacity of an industrial robot refers to the maximum weight the robot arm can safely handle, including the end-effector (such as a gripper or welding torch) and the workpiece. Payload capacity varies by robot model and is a key factor when selecting the right robot for a specific application. Q2: How Do I Choose The Correct Payload Capacity For An Industrial Robot? A:Choosing the right payload requires evaluating several factors, including the weight of the workpiece, the tooling or gripper, additional accessories, and a safety margin. An accurate calculation ensures stable motion, long-term reliability, and optimal performance. Q3: What Payload Capacity Is Typically Required For Robotic Welding Applications? A:For most robotic welding applications, robots with payloads between 6 kg and 20 kg are commonly used. The exact requirement depends on the welding torch, cable system, and additional peripherals. Heavy-duty welding or large workpieces may require higher-capacity robots. Q4: Does payload capacity affect robot performance and accuracy? A:Yes. Operating a robot close to its maximum payload may reduce speed, accuracy, and service life. Selecting a robot with an appropriate payload margin ensures smoother motion, better repeatability, and more reliable long-term operation. Q5: How does RBTC help determine the right robot payload for my production line? A:RBTC evaluates actual production conditions, including part weight, process requirements, tooling configuration, and cycle time. Based on this analysis, we recommend suitable industrial robot models and system designs to ensure safe, efficient, and stable automation performance.

Do industrial robots require complex programming?

Q: Do industrial robots require complex programming? A: In most practical applications, no. Modern industrial robots are designed to be intuitive and user-friendly, and daily operation does not require advanced programming knowledge.In typical projects implemented by RBTC, robot systems are delivered with pre-configured programs and clear operating interfaces. Operators mainly perform routine tasks such as selecting programs, adjusting basic parameters, or restarting production—similar to operating standard industrial equipment.Complex programming is usually only needed during the initial integration stage, such as process design, motion path setup, or system commissioning. These tasks are handled by experienced automation engineers. After installation and training, the production team can use the system smoothly without writing code.For most manufacturers, the focus is on operating efficiency rather than programming complexity, and industrial robots today are built to support that reality.

What training is required to operate an industrial robot?

Q1: What training is required to operate an industrial robot? Training for operating industrial robots is mainly focused on practical, production-oriented skills. In most real factory environments:Basic Operator TrainingFor daily use of an industrial robot, operators usually need to learn:Safe start-up and shutdown procedures.Using the robot control panel and interface.Loading and selecting existing programs.Basic troubleshooting and alarm handling.Routine inspections and safe operation practices.This level of training is designed for front-line employees who will operate robots on the shop floor. Q2: Is prior professional experience in industrial robots required? No. Most industrial robot systems are designed to be user-friendly, and structured training enables ordinary operators to master daily operation within a short period of time. Q3: How is industrial robot training delivered? Training can be provided in different formats according to project needs, including on-site hands-on instruction, classroom learning, and remote technical guidance.In real projects, RBTC can include operator and technical training as an optional part of the industrial robot solution, helping customers use industrial robots safely and efficiently from the very beginning.

How long is the warranty period for industrial robots?

RBTC offers a one-year warranty service for our industrial robots. During the warranty period, for non-human-caused damaged parts, we will provide free replacement accessories.

In which industries are RBTC industrial robots mainly applied?

The industrial robots of RBTC are mainly applied in scenarios such as welding, palletizing, spraying, injection molding, die-casting, stamping and CNC lathes.

How long is the delivery date of the industrial robots?

Standard industrial robots and mechanical hands are in stock and can be delivered quickly. The customization time for non-standard automated equipment is 30 to 60 days.