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Technology Patents

Advanced Robotics Patents

Boston Dynamics locomotion patents; ABB and KUKA industrial robot IP; soft robotics grasping; dexterous manipulation; AMR navigation; and IP strategy for robotics technology startups.

FAQ

Who are the major advanced robotics patent holders, and what innovations do Boston Dynamics, ABB, and KUKA protect?

Advanced robotics patents span locomotion; manipulation; perception; and control — with major patent portfolios from industrial robot OEMs; autonomous mobile robot (AMR) companies; and humanoid robot developers: MAJOR ADVANCED ROBOTICS PATENT HOLDERS: BOSTON DYNAMICS (HYUNDAI ACQUISITION 2021): 300+ patents; specific Atlas humanoid (specific whole-body control algorithm: specific real-time quadratic programming for specific full-body motion primitive composition + specific contact force optimization; specific Model Predictive Control (MPC) for specific dynamic locomotion); specific Spot quadruped (specific dog-like locomotion gait generator: specific contact schedule optimization + specific CPG — Central Pattern Generator — hybrid; specific stair climbing + specific rough terrain negotiation using specific 3D LIDAR + specific foot contact sensor); specific Stretch robot for specific warehouse box moving (specific vacuum gripper + specific suction cup array with specific suction force per cup); ABB: 20,000+ total patents; specific YuMi dual-arm collaborative robot (specific force-torque sensing for specific safe human co-working without specific caging; specific lead-through programming); specific IRB 6700 industrial arm (specific parallel link kinematic structure); specific AbilityTM smart sensor for specific predictive maintenance; FANUC: 10,000+; specific SCARA robot; specific parallel link delta robot for specific pick-and-place at specific 200 cycles/min; specific CNC + robot integration; specific ROBOGUIDE offline programming simulation; KUKA (MIDEA ACQUISITION): 5,000+; specific KR AGILUS; specific LBR iiwa (specific joint torque sensing; specific impedance control for specific compliant human-robot interaction); specific SmartPAD; YASKAWA MOTOMAN: 5,000+; specific parallel-mechanism robot; specific CSDA20F dual-arm; specific I/O for specific spot welding; UNIVERSAL ROBOTS (TERADYNE): 1,000+; specific UR cobot (specific 6-DOF collaborative robot with specific joint current monitoring for specific contact detection without specific external force sensor); specific EasyProgramming teach pendant; AMAZON ROBOTICS: 3,000+; specific Kiva AMR (specific omnidirectional wheel mecanum drive; specific multi-agent pathfinding MAPF with specific decentralized reservation table; specific inventory pod mobile shelf); specific Robin bin picking (specific RGB-D + specific point cloud + specific suction cup grasp planner for specific unstructured bin-picking).

What innovations in soft robotics, dexterous manipulation, and robotic grasping are patentable?

Soft robotics; dexterous manipulation; and robotic grasping are among the fastest-growing and most technically differentiated areas of advanced robotics IP — where novel actuator designs; gripper architectures; and perception-manipulation algorithms create genuine patentable innovations: SOFT ROBOTICS PATENT LANDSCAPE: SOFT ROBOTICS (COMPANY; ACQUIRED RIGHTHAND ROBOTICS): 200+ patents; specific soft pneumatic gripper (specific flexible silicone finger actuator with specific internal pneumatic channel + specific embedded strain sensor for specific in-hand force sensing without specific rigid load cell); FESTO: 500+; specific bionic learning network (specific octopus-inspired soft arm with specific pneumatic bellows; specific bionic soft hand with specific tendons); SHADOW ROBOT: 100+; specific dexterous robot hand (specific 20-DOF shadow hand with specific air muscle actuator; specific tendon routing); SPECIFIC PATENTABLE SOFT ROBOTICS INNOVATIONS: specific soft actuator design (specific specific elastomer composition + specific internal channel geometry + specific specific bending motion type with specific specific blocked force at specific specific input pressure); specific soft sensor (specific conductive silicone strain gauge embedded in specific soft gripper finger for specific contact force + specific deformation measurement); specific variable stiffness actuator (specific jamming transition — specific granular jamming: specific elastic bag + specific granular fill + specific vacuum for specific stiffness on-demand transition); DEXTEROUS MANIPULATION PATENTS: SHADOW ROBOT; SKYDIO; OPENAI; TESLA; GOOGLE DEEPMIND: specific learned dexterous manipulation (specific sim-to-real transfer: specific domain randomization of specific specific physics parameters for specific specific grasp success rate improvement on specific hardware; specific vision-based manipulation policy: specific visual observation → specific transformer policy → specific specific gripper joint command for specific specific target pose); SPECIFIC PATENTABLE DEXTEROUS MANIPULATION INNOVATIONS: specific grasp planning algorithm (specific GraspNet or specific equivalent: specific point cloud input + specific specific NN architecture for specific grasp pose score at specific success rate on specific object class); specific in-hand manipulation algorithm (specific finger gaiting sequence for specific specific reorientation of specific specific object class with specific specific contact-rich dynamics model); specific tactile-feedback manipulation (specific GelSight or specific equivalent optical tactile sensor + specific specific contact force distribution algorithm for specific specific slip detection + specific specific re-grasp trigger).

What are the key patents in autonomous mobile robots, robot learning, and human-robot interaction?

Autonomous mobile robots (AMRs); robot learning from demonstration and simulation; and safe human-robot interaction are three of the most commercially important and IP-active areas in advanced robotics: AUTONOMOUS MOBILE ROBOT (AMR) PATENT LANDSCAPE: AMAZON ROBOTICS; LOCUS ROBOTICS; 6 RIVER SYSTEMS (SHOPIFY ACQUISITION); FETCH ROBOTICS (ZEBRA): SPECIFIC AMR NAVIGATION INNOVATIONS: specific SLAM for AMR (specific LiDAR-based graph SLAM with specific scan matching: specific ICP — iterative closest point — + specific pose graph optimization with specific loop closure detection for specific specific mapping accuracy in specific specific warehouse dynamic environment); specific human-aware navigation (specific social force model integration: specific repulsive force from specific human predicted trajectory for specific specific safe clearance maintenance in specific specific human-dense environment); specific multi-robot coordination (specific conflict-based search CBS for specific MAPF on specific specific grid map with specific specific time-expanded graph for specific specific makespan minimization); specific fleet management (specific task allocation: specific Hungarian method or specific specific auction algorithm for specific specific order-to-robot assignment with specific specific battery + specific specific position constraints); ROBOT LEARNING PATENTS: GOOGLE DEEPMIND (RT-2; SayCan); FIGURE; UNITREE; BOSTON DYNAMICS: specific imitation learning for robotics (specific behavioral cloning from specific human demonstration: specific 6-DOF EE trajectory → specific specific action chunking + specific specific transformer architecture for specific specific robot manipulation task); specific reinforcement learning sim-to-real (specific PPO + specific specific domain randomization on specific specific physics simulator + specific specific system identification for specific specific sim-to-real gap reduction); OPEN-SOURCE ROBOTICS: ROS (OPEN ROBOTICS): ROS 2 is open-source (BSD license); specific commercial innovations on top of ROS 2 = patentable; specific novel navigation stack; specific novel manipulation library; specific novel perception integration; HUMAN-ROBOT INTERACTION (HRI) PATENTS: FANUC; KUKA; ABB; UNIVERSAL ROBOTS: specific collaborative robot safety standard (ISO/TS 15066 Power and Force Limiting mode; ISO 10218 — specific hardware design claims for specific force-torque compliance at specific safety limit); specific gesture-based robot teaching (specific skeleton detection from specific depth camera → specific human intent recognition for specific specific task-level programming without specific teach pendant); specific natural language instruction following for robots (specific LLM + specific robot action library grounding for specific specific task parsing to specific specific manipulation primitive sequence).

What IP strategy should advanced robotics technology startups use?

Advanced robotics startups operate in a market where large industrial automation companies (ABB; FANUC; KUKA; Yaskawa) have enormous patent portfolios — but where significant innovation whitespace exists for soft robotics; learned manipulation; and specific application domains: ADVANCED ROBOTICS STARTUP IP STRATEGY: UNDERSTAND THE ROBOTICS IP LANDSCAPE: INDUSTRIAL ROBOT OEM DOMINANCE: ABB (20,000+); FANUC (10,000+); KUKA (5,000+); Yaskawa (5,000+) control the traditional industrial robot IP landscape = new entrants in standard industrial manipulation must FTO extensively; COBOT OPPORTUNITY: Universal Robots; Rethink Robotics (Kawasaki); KUKA LBR iiwa pioneered collaborative robot = cobot-specific IP is still developing with whitespace; AMAZON ROBOTICS CONCENTRATION: logistics AMR space dominated by Amazon Robotics IP (Kiva + Robin + Sparrow); OPEN SOURCE: ROS 2 = open-source foundation for most robotics stacks = standard navigation + manipulation is prior art; patentable innovations must be on top of ROS 2; WHEN TO PATENT IN ADVANCED ROBOTICS: SPECIFIC NOVEL ACTUATOR/MECHANISM: specific novel soft actuator material + geometry + measured blocked force + bending moment at specific pressure; specific novel tendon routing for specific dexterous hand with specific measured finger force transmission efficiency; SPECIFIC NOVEL MANIPULATION ALGORITHM: specific novel grasp planner with specific measured success rate on specific object category in specific benchmark (YCB; BigBird); specific novel in-hand manipulation algorithm with specific measured cycle time improvement; SPECIFIC NOVEL LOCOMOTION: specific novel gait algorithm for specific terrain type with specific measured stability metric; specific novel whole-body control for specific dynamic maneuver with specific measured performance; SPECIFIC NOVEL PERCEPTION-ACTION: specific novel vision-manipulation policy with specific measured generalization to specific unseen object class; TRADE SECRETS: trained manipulation policy weights from specific robot + environment combination; specific domain randomization parameters calibrated to specific real robot; specific calibration procedure for specific robot-gripper combination; § 101 CHALLENGES: pure robot control algorithm = abstract risk; SURVIVAL: specific mechanical embodiment (specific actuator hardware + specific sensor integration + specific algorithm + specific measured performance); ROBOT HARDWARE IS HIGHLY PATENT-ELIGIBLE: mechanical + mechatronic innovations = strongest claims (composition of matter for specific soft elastomer; mechanism claims for specific kinematic structure); KEY FTO CONSIDERATIONS: ABB: industrial arm kinematic structure; force-torque sensing; FANUC: pick-and-place delta parallel link robot; CNC integration; KUKA: impedance control compliant interaction; UNIVERSAL ROBOTS: current-based contact detection cobot; AMAZON ROBOTICS: MAPF reservation table; omni drive; bin picking RGB-D grasp planner; BOSTON DYNAMICS: whole-body MPC locomotion; SHADOW ROBOT: dexterous tendon hand; SOFT ROBOTICS: pneumatic soft gripper finger; OPEN SOURCE OPPORTUNITY: novel contributions to ROS 2 Navigation2; Nav2 behavior trees; MoveIt motion planning library.

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