ROBOTICS
Robotic Wheelchair
Over the years, the health service sector has been continually trying to improve the service provided to the aging population, accident victims and people in need of mobility assistance. As a result, more emphasis is being directed towards the design and development of intelligent tools (e.g. such as the robotic wheelchairs) which bring multiple functions, high stability and safety to help accident victims and people in need of mobility assistance.
Robotic wheelchair is an amalgamation of intelligent robotics technology and an electric wheelchair. It is a kind of enhanced wheelchair that has capabilities of navigating, detecting obstacles and moving automatically by utilizing sensors and artificial intelligence.
Such a system is made up of three main sub-systems, which include environmental awareness and navigation, motion control and human-machine interface.
Environmental awareness and navigation subsystem is built with image, sonar and infrared sensors. Because sonar sensors have the disadvantage of wide beam angle, non-directionality and ghost echo, infrared sensors are used as a co-sensor for obstacle detection to compensate for the former’s shortcomings. Image sensors offer visual navigation function by capturing images of surroundings and comparing with pre-stored map or monitoring the user’s eyeball / head movement to determine moving direction of wheelchair.
Motion control subsystem consists of MCU, accelerometers, motor drivers, rotary encoders and motors. Rotary encoders and 3-axis accelerometers monitor the speed and orientation of the wheelchair when changing direction and climbing ramps. They work with MCU, motor drivers and motors to implement motion control.
Keypad, microphone, joystick, and touch screen constitute a human-machine interface of robotic wheelchairs. Keypad is used to select manual, semi-automatic, or automatic navigation mode. Microphone receives voice instructions to control motion of wheelchairs. But so far, robotic wheelchairs can only recognize a few instructions such as ‘go forward’, ‘go back’, ‘turn left’ and ‘turn right’. Joysticks are used in manual navigation mode to control wheelchair’s motion. Touch screen allows users set parameters such as speed or the destination that needs to be specified in automatic navigation mode.
Robotic wheelchairs are becoming more and more intelligent and human-like. In the future, highly advanced technologies such as brain wave control and robotic arm could be equipped on robotic wheelchair to help more people in need of mobility support around the world.
Hover over the blocks to view recommended products for this solution:
Infrared Transmitter and Receiver
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3-Axis Accelerometer
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Ultrasonic Transmitter and Receiver
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Joystick
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Image Sensor
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Microphone
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High performance MCU with ADC and PWM
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Processing video and audio information
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Touch Screen Controller
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Rotary Encoder
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Rotary Encoder
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Button
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Touch Screen
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Motor Driver
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Motor Driver
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DC Motor
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DC Motor
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Audio Pre-Amplifier
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Audio Codec
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Audio Power Amplifier
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Speaker
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Battery
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Memory
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![]() | NXP MCIMX51EVKJ | KIT, EVALUATION, I.MX51 Based on a powerful ARM Cortex-A8 core, the i.MX51 EVK delivers extreme performance and provides long battery life helping developers design products that meet today's demands for energy efficiency. | |
![]() | NXP M52233DEMO | MCF52233 LOW COST EVALUA M52233DEMO is a low-cost development board for the ColdFire MCF52233 microcontroller. | |
![]() | NXP M52235EVB | Evaluation Kit for MCF5223x Microcontrol The M52235EVB evaluation board provides an excellent vehicle for embarking on a high-performance embedded design of the MCF5223x Family of ColdFire microprocessors. | |
![]() | NXP KWIKSTIK-K40 | KIT, DEV, KINETIS KWIKSTIK, K40 The KwikStik development tool is an ultra low-cost, all-in-one development tool for evaluating, developing and debugging Kinetis MCUs. | |
![]() | NXP TWR-K40X256-KIT | KIT, TOWER SYSTEM, KINETIS, K40 The TWR-K40X256-KIT is a development platform for the Kinetis K40 & K30 families of microcontrollers, and is part of the Tower System modular development platform. | |
![]() | NXP TWR-K60N512-KIT | KIT, TOWER SYSTEM, KINETIS, K60 The TWR-K60N512-KIT is a development plataform for the Kinetis K60 & K10/K20 families of microcontrollers, and is part of the Tower System modular development platform. | |
![]() | MICROCHIP MA320002 | KIT, PIC32 USB PLUG IN MODULE This Plug-in Module enables USB development using a PIC32, Explorer 16 development board. Requires USB PICtail+ (AC164131) for connecting USB hardware. | |
![]() | MICROCHIP MA320001 | MODULE, PIC32, FOR EXPLORER 16 This Plug-in Module enables PIC32 development on the Explorer 16 development board (DM240001 or DM240002) and supports the MPLAB Real ICE Trace kit (AC244006). | |
![]() | EMBEST LPC1768-SK | KIT, STARTER, LPC1768 Low cost development kit for NXP LPC1768 (100MHz, the very fast Cortex-M3 processor), including the LPC1768 evaluation board and Emlink for ARMJTAG adapter. | |
![]() | EMBEST EM-LPC1700-68 | KIT, EVAL, LPC1768, ARM-CM3 EM-LPC1700 is the latest generation of full function evaluation board produced by Embest for NXP ARM Cortex-M3 core-based processors. | |
![]() | TEXAS INSTRUMENTS TMDSEVM3530 | MOD, EVAL, OMAP 3530 The OMAP35x Evaluation Module (EVM) enables developers to immediately start evaluating OMAP35x processors (OMAP3530, OMAP3525, OMAP3515, OMAP3503) and begin building low power applications such as portable media players, navigation devices, handheld game consoles etc. | |
![]() | TEXAS INSTRUMENTS TMDSMEVM3530-L | Zoom OMAP35x Medical Development Kit The OMAP35x Evaluation Module (EVM) enables developers to immediately start evaluating OMAP35x processors (OMAP3530, OMAP3525, OMAP3515, OMAP3503) for development of medical applications. | |
Image | Manufacturer & Part Number | Description |
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ANALOG DEVICES | DSP | Interfacing the ADSP-BF533/ADSP-BF561 Blackfin® Processors to High Speed Parallel ADCs | AN-813 | ADSP-BF561 | Click here |
ANALOG DEVICES | Touch Screen Controller | Configuring the AD7877 | AN-753 | AD7877 | Click here |
ANALOG DEVICES | DSP | Interfacing Blackfin EZ-KIT Lite Boards to CMOS Image Sensors | EE-300 | Blackfin Processor | Click here |
ANALOG DEVICES | Touch Screen Controller | Layout and Grounding Recommendations for Touch Screen Digitizers | AN-577 | AD7843ARQZ | Click here |
ANALOG DEVICES | DSP | Seamlessly Interfacing MEMS Microphones with Blackfin Processors | EE-350 | Blackfin Processor | Click here |
ANALOG DEVICES | Touch Screen Controller | Sensors for the AD7147 and AD7148 CapTouch® Controllers | AN-925 | AD7148 | Click here |
ANALOG DEVICES | Touch Screen Controller | Using the AD7877 Touch Screen Controller and the Intel PXA250 Processor Under Windows CE.NET | AN-738 | AD7877 | Click here |
ANALOG DEVICES | DSP | Using the ADSP-BF561 Blackfin Processor as a TFT-LCD Controller | EE-256 | Blackfin Processor | Click here |
ANALOG DEVICES | DSP | Connecting Blackfin® Processors to the AD7656 SAR ADC | EE-321 | ADSP-BF561 | Click here |
NXP | MCU | Dynamic LCD Driver Using GPIO Pins | AN3412 | MCF51JEXX | Click here |
NXP | MCU | General soldering Temperature Process Guidelines | AN3300 | MCF5223X | Click here |
NXP | MCU | Implementing an LCD Module to MCF5223x Extended Display for V2 ColdFire | AN3559 | MCF5223X | Click here |
NXP | Accelerometer | AN3839, MMA7660FC Board Mounting Guidelines | AN3839 | MMA7660 | Click here |
NXP | Accelerometer | AN3923, MMA8450Q Design Checklist and Board Mounting Guidelines | AN3923 | MMA845x | Click here |
NXP | Accelerometer | AN4247 : Layout Recommendations for PCBs Using a Magnetometer Sensor | AN4247 | MMA845x | Click here |
NXP | Accelerometer | MMA7660FC : MMA7660FC, 3-Axis Orientation/Motion Detection Sensor | MMA7660 | Click here | |
NXP | MCU | System Design and Layout Techniques for Noise Reduction in MCU-Based Systems | AN1259 | Click here | |
NXP | MCU | Using ADC and QADC Modules with ColdFire Microcontrollers | AN3749 | MCF522x | Click here |
NXP | MCU | Using the Pulse Width Modulation with the MCF521x ColdFire® Microcontroller | AN3511 | MCF521x | Click here |
NXP | MCU | Capacitive touch sensing using the LPC11xx (with software) | AN11023 | LPC11xx | Click here |
NXP | MCU | Flash based non-volatile storage (with software) | AN11008 | LPC11xx | Click here |
NXP | MCU | Reducing code size for LPC11XX with LPCXpresso | AN10963 | LPC11XX | Click here |
TEXAS INSTRUMENTS | Touch Screen Controller | How to Use TI's 4-Wire TSC to Control an 8-Wire Resistive Touch Screen | Click here | ||
TEXAS INSTRUMENTS | DSP | Implementing DDR2/mDDR PCB Layout on the TMS320DM35x DMSoC | TMS320DM35x | Click here | |
TEXAS INSTRUMENTS | DSP | OMAP35x 0.65mm Pitch Layout Methods | OMAP35x | Click here | |
TEXAS INSTRUMENTS | Touch Screen Controller | Operation Schemes of Touch Screen Controllers | Click here | ||
TEXAS INSTRUMENTS | DSP | Providing a DSP Power Solution From 5-V Or A 3.3-V Only System | C6000 | Click here | |
TEXAS INSTRUMENTS | DSP | The C6000 Embedded Application Binary Interface Migration Guide | C6000 | Click here | |
TEXAS INSTRUMENTS | DSP | TMS320DM6467 SoC Architecture and Throughput Overview | SPRAAW4B | TMS320DM6467 | Click here |
TEXAS INSTRUMENTS | DSP | Understanding TI’s PCB Routing Rule-Based DDR Timing Specification | SPRAAV0A | Click here | |
TEXAS INSTRUMENTS | Touch Screen Controller | What Designers Should Know About Data Converter Drift | Click here | ||
Manufacturer | Product Type | AN Title | AN Number | Part Number | URL |
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ANALOG DEVICES | Accelerometer | The Five Motion Senses: Using MEMS Inertial Sensing to Transform Applications | Click here |
TEXAS INSTRUMENTS | DSP | An Overview of TI's Digital Video Software Development Kit | Click here |
TEXAS INSTRUMENTS | DSP | ARM The Cortex-A8 Microprocessor - White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Code Composer Studio IDE v2.0 White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Design Considerations When Choosing an OS for ARM Based MPU's | Click here |
TEXAS INSTRUMENTS | DSP | Fixed vs. Floating Point white paper | Click here |
TEXAS INSTRUMENTS | DSP | Getting the Most Out of Your Image-Processing Pipeline White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Power Management Techniques for OMAP35x Applications Processors White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Real-Time Data Exchange | Click here |
TEXAS INSTRUMENTS | DSP | Reference Frameworks for eXpressDSP Software: A White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Software and Hardware Design Challenges due to Dynamic Raw NAND Market | Click here |
TEXAS INSTRUMENTS | DSP | The TMS320 DSP Algorithm Standard White Paper | Click here |
TEXAS INSTRUMENTS | DSP | Transcoding with DM6467 and DaVinci Technology Drives Video Market Evolution | Click here |
Manufacturer | Product Type | White Paper Title | URL |
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ANALOG DEVICE | Accelerometer | ADIS16210 Evaluation Tool | ADIS16210CMLZ | ADIS16210 | Click here |
ANALOG DEVICE | Accelerometer | ADXL330Z Evaluation Board | EVAL-ADXL330Z | ADXL330 | Click here |
ANALOG DEVICE | Accelerometer | Three-Axis Accelerometer Evaluation Board | EVAL-ADXL325Z | ADXL325 | Click here |
ANALOG DEVICE | Accelerometer | Three-Axis Accelerometer Evaluation Board | EVAL-ADXL327Z | ADXL327 | Click here |
ANALOG DEVICES | DSP | ADSP-BF527 EZ-KIT Lite Evaluation System Manual | ADSP-BF527 EZ-KIT | ADSP-BF527 | Click here |
ANALOG DEVICES | DSP | EZ-KIT Lite Evaluation Kit for ADSP-BF561 Blackfin Processor | ADZS-BF561-EZLITE | ADSP-BF561 | Click here |
APTINA IMAGING | Image Sensor | Demo Kit Quick Start Guide | MT9P031I12STCD ES | MT9P031I12STC | Click here |
APTINA IMAGING | Image Sensor | MT9T031 Product Flyer | MT9T031C12STCD ES | MT9T031C12STC | Click here |
APTINA IMAGING | Image Sensor | MT9V131 Product Flyer | MT9V131C12STCD ES | MT9V131C12STC | Click here |
APTINA IMAGING | Image Sensor | MT9V131 Product Flyer | MT9V131C12STCH ES | MT9V131C12STC | Click here |
APTINA IMAGING | Image Sensor | MT9V135 Product Flyer | MT9V135C12STCD ES | MT9V135C12STC | Click here |
NXP | Accelerometer | Sensor Toolbox Accelerometer board for MMA845X | RDMMA845X | MMA845X | Click here |
NXP | Accelerometer | Sensor Toolbox for MMA8450 Accelerometer | RD3924MMA8450Q | MMA8450 | Click here |
MICROCHIP | MCU | PIC32 Ethernet Starter Kit II User’s Guide | DM320004 | PIC32 Family | Click here |
MICROCHIP | MCU | PIC32 Starter Kit User's Guide | DM320001 | PIC32 Family | Click here |
MICROCHIP | MCU | PIC32 USB Starter Kit II User’s Guide | DM320003-2 | PIC32 Family | Click here |
NXP | MCU | NXP - OM11042 - MCU - Prototyping Board | OM11042 | LPC2368 | Click here |
NXP | MCU | NXP - OM11043 - MCU - Prototyping Board | OM11043 | LPC1768 | Click here |
TEXAS INSTRUMENTS | DSP | TMS320DM6467 DVEVM v2.0 Getting Started Guide | TMDSEVM6467 | TMS320DM6467 | Click here |
Manufacturer | Product Type | Evaluation Kits Title | EVKs Part Number | Part Number | URL |
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MICROCHIP | MCU | PIC32 Architecture Overview | PIC32 | Click here |
MICROCHIP | MCU | PIC32 DMA Module | PIC32 | Click here |
MICROCHIP | MCU | PIC32 Execution Pipeline | PIC32 | Click here |
TEXAS INSTRUMENTS | DSP | Bringing DSP closer to ARM and Leveraging DSP MHz for signal processing | Click here | |
TEXAS INSTRUMENTS | DSP | Media Server System Block Diagram | TMS320DM6467 | Click here |
TEXAS INSTRUMENTS | DSP | TMS320DM6467 DVEVM Overview | TMS320DM6467 | Click here |
TEXAS INSTRUMENTS | DSP | TMS320DM6467 Product Overview | TMS320DM6467 | Click here |
TEXAS INSTRUMENTS | DSP | Transcoding - Sharping the Future of Video Applications | TMS320DM6467 | Click here |
Manufacturer | Product Type | Training Title | Part Number | URL |
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