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<title>Robotic Industries</title><link>https://robotic-industries.com/</link><description>Independent engineering coverage of robot development worldwide: industrial and collaborative arms, mobile robots, humanoids, perception, actuators, safety standards and the economics behind them.</description><language>en</language>
<item><title>How to Calculate Robot Cycle Time Before You Sign</title><link>https://robotic-industries.com/industrial-robotics/calculate-robot-cycle-time/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/calculate-robot-cycle-time/</guid><description>A method for estimating robot cycle time from a datasheet, with the acceleration and settling terms that vendor demos leave out, plus a worked machine tending example.</description><category>Industrial Robotics</category></item>
<item><title>Delta Robots: Are 150 Picks per Minute Realistic?</title><link>https://robotic-industries.com/industrial-robotics/delta-robot-pick-rates/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/delta-robot-pick-rates/</guid><description>Delta robots reach 150 to 200 picks per minute in a demo and 60 to 120 in production. Here is what removes the difference, and where a delta stops being the right machine.</description><category>Industrial Robotics</category></item>
<item><title>What a Machine Tending Cell Costs, Line by Line</title><link>https://robotic-industries.com/industrial-robotics/machine-tending-cell-cost/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/machine-tending-cell-cost/</guid><description>A full cost breakdown for a robotic CNC tending cell, from robot and gripper to machine interface and commissioning, with the four lines that blow up quotations.</description><category>Industrial Robotics</category></item>
<item><title>How Many Cases per Minute Can a Palletizing Robot Really Do?</title><link>https://robotic-industries.com/industrial-robotics/palletizing-robot-throughput-rates/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/palletizing-robot-throughput-rates/</guid><description>Realistic palletizing throughput by robot type, with the arithmetic behind cases per minute, why layer picking beats single picking, and where the pattern costs you cycles.</description><category>Industrial Robotics</category></item>
<item><title>Payload vs Reach: Why a Bigger Robot Arm Gets Slower</title><link>https://robotic-industries.com/industrial-robotics/payload-vs-reach-robot-arms/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/payload-vs-reach-robot-arms/</guid><description>Payload and reach fight each other through joint torque. Here is the arithmetic, the derating you should expect at full extension, and how to size an arm without buying twice.</description><category>Industrial Robotics</category></item>
<item><title>Repeatability vs Accuracy: The Robot Spec Buyers Confuse Most</title><link>https://robotic-industries.com/industrial-robotics/repeatability-vs-accuracy-robots/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/repeatability-vs-accuracy-robots/</guid><description>Repeatability is how tightly a robot returns to the same taught point. Accuracy is how close it gets to a commanded coordinate. The gap between them is often 20 times.</description><category>Industrial Robotics</category></item>
<item><title>IP54, IP67, IP69K: What Robot Protection Ratings Mean</title><link>https://robotic-industries.com/industrial-robotics/robot-ip-ratings-explained/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/robot-ip-ratings-explained/</guid><description>What each IP digit tests, which rating a robot needs for washdown, foundry or paint work, and why a high rating on the wrist does not protect the controller.</description><category>Industrial Robotics</category></item>
<item><title>SCARA vs 6-Axis Robot: Which One Belongs in Your Cell</title><link>https://robotic-industries.com/industrial-robotics/scara-vs-six-axis-robot/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/scara-vs-six-axis-robot/</guid><description>A SCARA beats a six-axis arm on vertical assembly by a factor of two to three on cycle time. Here is where the crossover sits and what the four-axis limitation actually costs.</description><category>Industrial Robotics</category></item>
<item><title>Spot Welding vs Arc Welding Robots: What Actually Changes</title><link>https://robotic-industries.com/industrial-robotics/spot-welding-vs-arc-welding-robots/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/spot-welding-vs-arc-welding-robots/</guid><description>Spot welding robots carry a 60 to 120 kg gun and move in jumps. Arc welding robots carry 6 to 12 kg and must hold a path within a millimetre. Almost nothing transfers between them.</description><category>Industrial Robotics</category></item>
<item><title>Who Actually Builds the World&#x27;s Industrial Robots?</title><link>https://robotic-industries.com/industrial-robotics/who-builds-industrial-robots/</link><guid isPermaLink="true">https://robotic-industries.com/industrial-robotics/who-builds-industrial-robots/</guid><description>The supplier landscape behind 542,000 annual installations: the established builders, the Chinese challengers now holding 57 percent of their home market, and who makes the parts.</description><category>Industrial Robotics</category></item>
<item><title>Choosing a Cobot Gripper: Stroke, Force, Cycle Life</title><link>https://robotic-industries.com/collaborative-robots/cobot-gripper-selection-guide/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-gripper-selection-guide/</guid><description>How to select a collaborative robot gripper by stroke, grip force, mass and cycle life, with the arithmetic for holding force under acceleration and the pinch-point rules that apply.</description><category>Collaborative Robots</category></item>
<item><title>Cobot Payload Classes from 3 kg to 30 kg, Compared</title><link>https://robotic-industries.com/collaborative-robots/cobot-payload-classes-compared/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-payload-classes-compared/</guid><description>Cobot payload classes explained: what 3, 5, 10, 16, 20 and 30 kg arms actually reach, weigh and cost, and why the rated payload is never the payload you get.</description><category>Collaborative Robots</category></item>
<item><title>Hand Guiding, Teach Pendant, Offline: Which Is Fastest</title><link>https://robotic-industries.com/collaborative-robots/cobot-programming-methods-compared/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-programming-methods-compared/</guid><description>Three ways to program a collaborative robot, measured by setup time, accuracy and where each one breaks down. Hand guiding wins under 30 waypoints, offline wins above 200.</description><category>Collaborative Robots</category></item>
<item><title>Cobot Risk Assessment: The Steps Auditors Check</title><link>https://robotic-industries.com/collaborative-robots/cobot-risk-assessment-steps/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-risk-assessment-steps/</guid><description>A working sequence for a collaborative robot risk assessment, from limits of the machinery to validated measurement, and the six omissions that come back as audit findings.</description><category>Collaborative Robots</category></item>
<item><title>What a Cobot Costs in Its First Year</title><link>https://robotic-industries.com/collaborative-robots/cobot-total-cost-first-year/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-total-cost-first-year/</guid><description>The arm is a quarter of the bill. A line-by-line first-year cost model for a collaborative robot cell, including the items that surprise buyers after the quotation is signed.</description><category>Collaborative Robots</category></item>
<item><title>Cobot vs Industrial Robot: What Actually Differs</title><link>https://robotic-industries.com/collaborative-robots/cobot-vs-industrial-robot/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/cobot-vs-industrial-robot/</guid><description>A cobot is an industrial robot. The difference sits in the risk assessment, not in the arm, and since February 2025 both are covered by the same standard.</description><category>Collaborative Robots</category></item>
<item><title>When Is a Cobot Allowed to Run Without a Fence?</title><link>https://robotic-industries.com/collaborative-robots/fenceless-cobot-requirements/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/fenceless-cobot-requirements/</guid><description>A collaborative robot may run unguarded only when the risk assessment for that specific application says so. Here are the conditions, the evidence required and the cases that always keep a fence.</description><category>Collaborative Robots</category></item>
<item><title>ISO/TS 15066 Force Limits: The Table That Decides Your Cell</title><link>https://robotic-industries.com/collaborative-robots/iso-ts-15066-force-limits/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/iso-ts-15066-force-limits/</guid><description>The full biomechanical limits table from ISO/TS 15066 Annex A, with force, pressure, energy and speed values by body region, and what changed when ISO 10218 absorbed it in 2025.</description><category>Collaborative Robots</category></item>
<item><title>Power and Force Limiting: The Four Collaborative Modes</title><link>https://robotic-industries.com/collaborative-robots/power-force-limiting-explained/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/power-force-limiting-explained/</guid><description>The four collaborative operation types defined in ISO 10218, what each one permits, which hardware each needs, and why most cells end up using two of them in one cycle.</description><category>Collaborative Robots</category></item>
<item><title>Why Cobots Run Slower and What That Costs You</title><link>https://robotic-industries.com/collaborative-robots/why-cobots-run-slower/</link><guid isPermaLink="true">https://robotic-industries.com/collaborative-robots/why-cobots-run-slower/</guid><description>Collaborative operation caps tool speed by body region and effective mass. Here is the arithmetic, the throughput you give away, and when a fence is simply cheaper.</description><category>Collaborative Robots</category></item>
<item><title>Opportunity Charging vs Battery Swap for Mobile Robots</title><link>https://robotic-industries.com/mobile-robotics/amr-battery-charging-strategy/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/amr-battery-charging-strategy/</guid><description>Three charging strategies for mobile robot fleets, with the availability arithmetic that decides between them and the lithium chemistry differences that change the answer.</description><category>Mobile Robots</category></item>
<item><title>How Many Mobile Robots Does a Warehouse Actually Need?</title><link>https://robotic-industries.com/mobile-robotics/amr-fleet-size-calculation/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/amr-fleet-size-calculation/</guid><description>A fleet sizing method that survives contact with reality: round-trip time, congestion loss, charging overhead, peak factor and the buffer that stops the whole thing failing on day one.</description><category>Mobile Robots</category></item>
<item><title>Cost per Pick: Goods-to-Person Robots vs Manual Picking</title><link>https://robotic-industries.com/mobile-robotics/amr-pick-cost-comparison/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/amr-pick-cost-comparison/</guid><description>What a robotic pick actually costs against a manual one, with the labour, capital and maintenance terms laid out and the volume threshold where automation wins.</description><category>Mobile Robots</category></item>
<item><title>AMR vs AGV: The Difference That Changes Your Layout</title><link>https://robotic-industries.com/mobile-robotics/amr-vs-agv-difference/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/amr-vs-agv-difference/</guid><description>An AGV follows an installed guide path, an AMR plans its own route. That single difference decides installation cost, flexibility, throughput per vehicle and who owns the traffic problem.</description><category>Mobile Robots</category></item>
<item><title>ISO 3691-4: What It Demands From Driverless Trucks</title><link>https://robotic-industries.com/mobile-robotics/iso-3691-4-safety-requirements/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/iso-3691-4-safety-requirements/</guid><description>The safety standard for AGVs and AMRs: protective fields, stopping performance, speed limits, manual control and the requirements integrators most often miss.</description><category>Mobile Robots</category></item>
<item><title>Mobile Manipulators: Where They Beat Fixed Cells</title><link>https://robotic-industries.com/mobile-robotics/mobile-manipulator-use-cases/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/mobile-manipulator-use-cases/</guid><description>A mobile manipulator is an arm on a mobile base, and it only pays where the work is spread out and low volume. Here is the decision rule and the accuracy problem nobody mentions.</description><category>Mobile Robots</category></item>
<item><title>Why GPS Alone Fails Outdoor Mobile Robots</title><link>https://robotic-industries.com/mobile-robotics/outdoor-robot-localization-gps/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/outdoor-robot-localization-gps/</guid><description>Standard GNSS gives 2 to 5 metres of error, RTK gives 1 to 2 centimetres until the correction drops, and neither works under a canopy. What outdoor robots actually use.</description><category>Mobile Robots</category></item>
<item><title>Sidewalk Delivery Robots: Where They Are Legal</title><link>https://robotic-industries.com/mobile-robotics/sidewalk-delivery-robot-regulation/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/sidewalk-delivery-robot-regulation/</guid><description>Pavement delivery robots are governed by local traffic law, not robotics standards. Here is how the main jurisdictions treat them and which rules decide a deployment.</description><category>Mobile Robots</category></item>
<item><title>SLAM, Reflectors, Magnetic Tape: Navigation Compared</title><link>https://robotic-industries.com/mobile-robotics/slam-navigation-methods-compared/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/slam-navigation-methods-compared/</guid><description>Five ways a mobile robot knows where it is, compared on accuracy, installation cost, robustness to layout change and where each one silently fails.</description><category>Mobile Robots</category></item>
<item><title>Warehouse Robot Throughput: Do the Math Before the Pilot</title><link>https://robotic-industries.com/mobile-robotics/warehouse-robot-throughput-math/</link><guid isPermaLink="true">https://robotic-industries.com/mobile-robotics/warehouse-robot-throughput-math/</guid><description>How to calculate mobile robot throughput from travel distance, dwell time and congestion, with a worked example showing why the second robot never doubles the rate.</description><category>Mobile Robots</category></item>
<item><title>How Bipedal Robots Stay Upright: From ZMP to MPC</title><link>https://robotic-industries.com/humanoid-robots/bipedal-walking-control-explained/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/bipedal-walking-control-explained/</guid><description>Balance control explained without the maths: what the zero moment point actually is, why capture point changed the field, and what model predictive control added on top.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Why Humanoid Robots Run Out of Power in Two Hours</title><link>https://robotic-industries.com/humanoid-robots/humanoid-battery-runtime-limits/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-battery-runtime-limits/</guid><description>The energy arithmetic behind humanoid runtime: standing costs power, walking costs more, and a pack that would fix it weighs more than the robot can carry.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Do Humanoid Robots Need Legs? The Case for Wheels</title><link>https://robotic-industries.com/humanoid-robots/humanoid-legs-versus-wheels/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-legs-versus-wheels/</guid><description>Legs cost energy, complexity and safety margin. They earn their place only where stairs, thresholds or clutter cannot be removed, which is a narrower set of sites than it sounds.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Can a Humanoid Lift What a Human Lifts?</title><link>https://robotic-industries.com/humanoid-robots/humanoid-payload-versus-human/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-payload-versus-human/</guid><description>Published humanoid payloads of 16 to 25 kg look comparable to human limits, but the comparison collapses once posture, duration and repetition are included.</description><category>Humanoids and Legged Robots</category></item>
<item><title>What a Humanoid Robot Costs to Build, Part by Part</title><link>https://robotic-industries.com/humanoid-robots/humanoid-robot-cost-breakdown/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-robot-cost-breakdown/</guid><description>Where the money goes in a humanoid: actuators dominate at 40 to 55 percent, hands are the most expensive part per kilogram, and the published prices span a factor of ten.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Every Serious Humanoid Programme, Compared</title><link>https://robotic-industries.com/humanoid-robots/humanoid-robot-programs-compared/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-robot-programs-compared/</guid><description>Height, mass, payload, runtime and deployment status for the humanoid robots that actually exist, separated from the ones that only exist in launch videos.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Humanoids Have No Safety Standard Yet. What Now?</title><link>https://robotic-industries.com/humanoid-robots/humanoid-safety-standard-gap/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-safety-standard-gap/</guid><description>No published standard covers a free-walking humanoid working near people. Here is what the three adjacent standards do cover, and the route deployments are actually taking.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Teleoperation: How Humanoid Training Data Is Collected</title><link>https://robotic-industries.com/humanoid-robots/humanoid-teleoperation-data-collection/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/humanoid-teleoperation-data-collection/</guid><description>Behind every humanoid demonstration is a human wearing a rig. Here are the capture methods, their data rates, their costs per hour and the retargeting problem nobody shows.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Quadruped vs Wheeled Robots for Plant Inspection</title><link>https://robotic-industries.com/humanoid-robots/quadruped-vs-wheeled-inspection/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/quadruped-vs-wheeled-inspection/</guid><description>A legged inspection robot costs three to six times a wheeled one and earns it only on stairs and grating. Here is the site survey that decides which you need.</description><category>Humanoids and Legged Robots</category></item>
<item><title>Robot Hands: How Many Degrees of Freedom Are Enough?</title><link>https://robotic-industries.com/humanoid-robots/robot-hand-degrees-freedom/</link><guid isPermaLink="true">https://robotic-industries.com/humanoid-robots/robot-hand-degrees-freedom/</guid><description>A two-finger gripper covers most industrial grasps. Beyond that, each added degree of freedom costs money and reliability, and the useful ceiling is lower than research hands suggest.</description><category>Humanoids and Legged Robots</category></item>
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