Humanoid robot
Comprehensive system-level solutions for building the robots of tomorrow
Select a humanoid robot application
Discover our design resources for humanoid robot applications. From interactive reference diagrams with subsystem product recommendations to technical white papers and trending blog posts, find your application resource here to speed up your design cycle.
Explore our humanoid robot applications by interacting with the diagram to the right.
Navigation and sensing
Navigation and sensing in humanoid robots involves real-time data acquisition gathered from many sensors to perceive elements of the environment. Humanoid robots use algorithms to process sensor input for obstacle detection, path planning and precise movement for autonomous navigation of complex environments.
View our humanoid robot sensor modulePosition sensor
Position sensing in humanoid robots requires high-performance optical, magnetic and inductive sensing. These designs require small-footprint, low-power semiconductor solutions for compact encoders that can operate over an extended industrial temperature range, with electromagnetic compatibility immunity interfaces for reliable position sensing.
View our humanoid robot position sensorBattery management system
Our integrated circuits and reference designs help you create humanoid robot battery management system (BMS) designs for battery pack monitoring, protecting, cell balancing and gauging.
View our humanoid robot BMSSystem controller
The system controller in a humanoid robot acts as its brain, processing sensor data to perceive its environment, make decisions, and control movements. It manages tasks such as walking, object manipulation and interaction with humans.
View our humanoid robot system controllerSingle- and multi-axis servo drives
Our integrated circuits and reference designs help you create a compact, efficient and fully protected power-stage module for humanoid robots. Our analog and embedded processors enable improved motor-control performance and exceed IEC isolation and electromagnetic compatibility requirements.
View our humanoid robot motor driveWhy choose TI for humanoid robot systems?
Build smart, safe and compact robot motor drives
TI GaN devices and gate drivers enable you to build small, efficient and safe servo drives. High-precision current sensing and encoder enables more precise motor control.
Develop intelligent sensing, perception and navigation
Our processor families offer high-performance edge AI computing for perception, sensor fusion and navigation. Our TI millimeter wave radar portfolio enables high-accuracy sensing for humanoid robots.
Meet functional safety requirements
Achieve safety standards such as IEC 61508, ISO 13849 and ISO 26262 at lower system-level costs by using the on-chip safety capabilities of our analog and embedded integrated circuits.
Engineering safer, smarter humanoid robots
Create compact, efficient and fully protected servo drive power-stage modules
Humanoid robots rely on numerous motors, each requiring high power density and precise control in a compact space. GaN technology reduces the size of the power stage by more than 50% compared to metal-oxide semiconductor field-effect transistor alternatives, thanks to integrated drivers. With its ultra-low switching losses, GaN enables high-frequency pulse-width-modulation control in the hundreds of kilohertz range. Its ability to maintain efficiency without excessive heat helps address the complex, high-performance demands of humanoid robot systems.
Optimizing GaN performance with an integrated driver
3-Phase GaN inverter for robot and servo drives
How Three-Phase Integrated GaN Technology Maximizes Motor-Drive Performance
Featured products for power stages
Quickly achieve smooth, accurate motion
Humanoid robots require constant real-time measurement of motor currents, voltages and position to achieve accurate movement and speed. Our C2000™ microcontrollers and Sitara™ processors provide high-performance, real-time control to ensure that your robot operates with precision, stability and safety. Designed to minimize communication and processing delays, these processors deliver best-in-class motion control, cycle time and path accuracy, meeting the growing performance demands of modern humanoid robot systems.
Decentralized Multiaxis Motor Control
What is “real-time control” and why do you need it?
How to achieve precise motion control in industrial drives
Featured products for motor control
Gain precise, safe motion with timely communication
To enable precise and safe motion in humanoid robots, real-time communication interfaces such as standard or Single-Pair Ethernet (SPE) are essential for timely data exchange between systems. Our latest physical layer (PHY), combined with our high-performance real-time MCUs, support various industrial communication protocols up to gigabit speeds, while helping reducing cable weight, complexity, and points of failure in advanced robot designs.
How and Why to Use Single Twisted-Pair Ethernet (SPE) for Industrial Robotics Environments (Rev. A)
EMC/EMI Compliant Design for Single Pair Ethernet
Featured products for communications
Increase your robot’s performance and speed, without compromising response time to a safety threat
Enable close humanoid robot collaboration with our portfolio of high-accuracy mmWave sensors. Our mmWave radar sensors enable precise data collection through a 360-degree view, which can help you achieve the highest level of precision in your designs. Our radar technology is also precertified to Safety Integrity Level 2 from Technischer Überwachungsverein (TÜV SÜD) to facilitate the safety design cycle, and is capable of fulfilling the requirements of the International Electrotechnical Commission (IEC) 61496-5 standard for radar-protective devices.
Webinar: Sensing in Robotics
TI mmWave experts discuss functional safety
Nanosecond Laser Driver Reference Design for Lidar
Streamline your functional safety system certification
Meet the rigorous requirements of functional safety standards such as IEC 61508 with our TI Functional Safety-Compliant sensors and processors. We offer functional safety-certified engineers; available documentation and resources such as functional safety failure-in-time rate and failure modes, effects and diagnostic analysis; and safety certificates and software diagnostics libraries to help ease the certification process.
Optimizing functional safety for industrial robots
Design Smaller Safe Torque Off (STO) Systems Using 3-Phase Smart Gate Drivers
Functional Safety at TI
Design Smaller STO Systems Using Integrated Three-Phase Smart Gate Drivers
48V, 4kW small form-factor three-phase inverter reference design for integrated motor drives
This reference design demonstrates a three-phase inverter with nominal 48V DC input and 85Arms output current rating. The 100V intelligent half-bridge gate driver DRV8162L enables a small size, robust and high efficiency power stage. Multichannel shutdown paths using the split power supply (...)
48V/16A small form factor three-phase GaN inverter reference design for integrated motor drives
This reference design demonstrates a high-power density 12V to 60V 3-phase power stage using three LMG2100R044 100V, 35A GaN half-bridges with integrated GaN FETs, driver and bootstrap diode specifically for motor-integrated servo drives and robotics applications.
Accurate phase-current sensing (...)
Technical resources
E-book: An engineer’s guide to industrial robot designs
How and Why to Use Single Twisted-Pair Ethernet (SPE) for Industrial Robotics Environments (Rev. A)
Robotics software development kit
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