Robotic arm forms a key part of industrial robotics. With tools mounted onto the robotic arm, a variety of different jobs such as soldering, painting and palletizing can be performed. There are several types of robotic arms currently employed in a wide range of industrial applications; namely - cartesian, cylindrical, polar and articulated robotic arms. An articulated robotic arm is the most popular type and has a higher DOF (Degree of Freedom), small size and wide operation range, as well as capability to avoid obstacles within a small space.
[+MORE]
An articulated robot arm typically consists of rigid rods and rotatable articulations. A servo control system is used to control servo motors which drive articulations to rotate. It includes three modules: servo motor control, sensor and central control modules. Servo motor control module integrates a MCU, a motor driver, an encoder and a current sensor. Based on instructions from central module, MCU sends control signals to the motor driver which then amplifies the signals to drive motor to rotate. Encoder and current sensor are responsible for monitoring motor and returning feedback info to the MCU to ensure proper operation of servo motor. The sensor module involves many types of sensor such as proximity, image, pressure and LVDT sensors, which are used to collect data regarding robot arms’ motion behaviors and send to central control module after being processed by signal conditioning circuit. Central control module has a DSP and PLC module. DSP calculates motion trails and parameters of articulations based on data provided by sensor module. And then it sends the results to servo motor control module through CAN bus so that the required operation can be implemented by robot arms. PLC module provides a human-machine interface through which users can set programs to control robot arms. Additionally, PLC module has interfaces for connecting panic button and different types of relay which are used to control tools attached on robot arms.
With the advancement of robotics and artificial intelligence, robotic arms would become smarter and would be employable in more applications in the near future.[-LESS]
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Cable |
Cables for Robotics and Power Chain Systems |
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DSP |
Power Bypass Decoupling of SHARC Processors |
EE-253 |
ADSP-21371 |
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DSP |
Interfacing SDRAM Memories to SHARC Processors |
EE-286 |
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DSP |
Using the UART Port Controller on SHARC Processors |
EE-296 |
ADSP-21371 |
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| ANALOG DEVICES |
DSP |
Designing and Debugging Systems with SHARC Processors |
EE-305 |
ADSP-21364 |
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| ANALOG DEVICES |
DSP |
Implementing an Ogg Vorbis Decoder on SHARC Processors |
EE-320 |
ADSP-21364 |
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| ARTESYN |
Power Supply |
NLP150L Quad |
AN123 |
NLP150L |
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| ARTESYN |
Power Supply |
NLP150L Single and Triple |
AN1249 |
NLP150L |
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| FREESCALE SEMICONDUCTOR |
DSP |
Using Symphony Studio with the DSP563xxEVM |
AN3754 |
DSP563xx |
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| FREESCALE SEMICONDUCTOR |
DSP |
Interfacing Flash Memory With the DSP56300 Family of Digital Signal Processors |
APR26 |
DSP56300 |
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DSP |
DSP56300 Interfacing EPROM and EEPROM Memory with the DSP56300 Family of Digital Signal Processors |
APR27 |
DSP56300 |
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DSP |
Booting DSP563xx Devices through the Serial Communication Interface (SCI) |
AN1781 |
DSP563xx |
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DSP |
DSP56300 Interfacing Serial EEPROM to DSP563xx |
APR38 |
DSP563xx |
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DSP |
Using the DSP56300 Direct Memory Access Controller |
APR23 |
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DSP |
DSP56300 Family: ECP Standard Parallel Interface for DSP56300 Devices |
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Encoder |
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OM11043 - KIT |
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DAC |
Fully Accurate, 16-Bit, UnBuffered VOUT Quad SPI Interface DAC: AD5066 |
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| FREESCALE SEMICONDUCTOR |
MCU |
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| FREESCALE SEMICONDUCTOR |
EVK |
Tower Board System – A Modular Development Platform |
NA |
Click here |
| MICROCHIP |
MOTOR |
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| MICROCHIP |
MOTOR |
Sensorless BLDC motor control using a Majority Function |
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Click here |
| NXP |
MCU |
An Introduction to ARM Cortex-M3: LPC175X series |
LPC175X |
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| TEXAS INSTRUMENTS |
DSP |
Bringing DSP closer to ARM and Leveraging DSP MHz for signal processing |
TI's DSP |
Click here |
| TEXAS INSTRUMENTS |
MCU |
Introduction to Stellaris® ARM Cortex™-M3 MCUs |
Stellaris MCU |
Click here |
| TEXAS INSTRUMENTS |
MCU |
Stellaris® ARM-based MCUs: Communications Introduction |
Stellaris MCU |
Click here |
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