The MOTIX™ IMD701A is Infineon’s fully programmable motor controller integrating XMC1404 microcontroller with 6EDL7141 3-phase gate driver IC in one package to enable the development of next generation battery operated products using BLDC or PMSM motors. With integrated precision power supply and current shunt amplifiers, many of the peripheral circuitry is no longer necessary allowing reduction in PCB space and improved system packaging possibilities.XMC1404, ARM® Cortex®-M0 based microcontroller incorporates dedicated features to improve motor drives control. A hardware MATH Co-Processor clocked at 96MHz, enhances calculations including division and trigonometric functions such as ‘Arctan’, commonly used in Field Oriented Control of PMSM. Additionally, XMC1404 inherits most of the high- end peripherals found in the XMC4000 family (ARM® Cortex®-M4), including PWM timers-CCU8 and CCU4-, Position interface (POSIF) or serial communication modules including CAN, ensuring best in class control.The integrated 3-phase gate driver (6EDL7141) is also designed for maximum flexibility. With configurable gate drive sink and source currents up to 1.5 A, it has the ability to drive a wide range of MOSFET’s effectively to minimize losses and increase efficiency. It has adjustable gate driver supply voltage setting between 7 V, 10 V, 12 V and 15 V even at low battery voltage thanks to built-in high and low side charge pumps. The 6EDL7141 also has adjustable gate driver parameters to enable control of the slew rate to minimize system EMI. All of the 6EDL7141 settings can be quickly changed with the available simple-to-use PC based GUI tool. In addition, with a full suite of system protection features such as OCP, UVLO, over-temperature, and locked rotor detection, this dedicated motor controller will increase reliability and robustness in severe operating fault conditions.

MOTIX™ motor controller IMD700A is Infineon’s fully programmable motor controller integrating XMC1404 microcontroller with 6EDL7141 3-phase gate driver IC in one package to enable the development of next generation battery operated products using BLDC or PMSM motors. With integrated precision power supply and current shunt amplifiers, many of the peripheral circuitry is no longer necessary allowing reduction in PCB space and improved system packaging possibilities.XMC1404, ARM® Cortex®-M0 based microcontroller incorporates dedicated features to improve motor drives control. A hardware MATH Co-Processor clocked at 96MHz, enhances calculations including division and trigonometric functions such as ‘Arctan’, commonly used in Field Oriented Control of PMSM. Additionally, XMC1404 inherits most of the high-end peripherals found in the XMC4000 family (ARM® Cortex®-M4), including PWM timers-CCU8 and CCU4-, Position interface (POSIF) or serial communication modules including CAN, ensuring best in class control.The integrated 3-phase gate driver (6EDL7141) is also designed for maximum flexibility. With configurable gate drive sink and source currents up to 1.5 A, it has the ability to drive a wide range of MOSFET’s effectively to minimize losses and increase efficiency. It has adjustable gate driver supply voltage setting between 7 V, 10 V, 12 V and 15 V even at low battery voltage thanks to built-in high and low side charge pumps. The 6EDL7141 also has adjustable gate driver parameters to enable control of the slew rate to minimize system EMI. All of the 6EDL7141 settings can be quickly changed with the available simple-to-use PC based GUI tool. In addition, with a full suite of system protection features such as OCP, UVLO, over-temperature, and locked rotor detection, this dedicated motor controller will increase reliability and robustness in severe operating fault conditions.

The MOTIX™ 6EDL7141 is Infineon’s 3-phase motor control gate driver IC that enables the development of high-performance battery-operated products using BLDC or PMSM motors. Applications include cordless power tools, gardening products, and automated guided vehicles. With over 50 programmable parameters using a built-in digital SPI interface, MOTIX™ 6EDL7141 is fully configurable to drive a wide range of MOSFETs to yield the best possible system efficiency.The MOTIX™ 6EDL7141 is also designed for maximum flexibility. With an operating voltage from 5.5-60 V and configurable gate drive sink and source current up to 1.5 A, it has the ability to drive a wide range of MOSFETs effectively to best fit the application. It has an adjustable gate driver supply voltage setting between 7 V, 10 V, 12 V and 15 V even at low battery voltage thanks to built-in dual charge pumps. The MOTIX™ 6EDL7141 also has adjustable gate driver parameters to enable control of the slew rate to minimize system EMI. All of the 6EDL7141 settings can be quickly changed with the available simple-to-use GUI.The integrated buck regulator requires only an external capacitor and inductor to provide power for both the microcontroller and the Hall sensors in the motor, further reducing peripheral components and the required PCB area. High-performance power tools often require high precision current measurements using accurate ADC reference voltage. MOTIX™ 6EDL7141 uses an advanced linear power regulator architecture powered by its internal buck converter to provide the best possible signal quality while optimizing power efficiency at any input and output conditions.MOTIX™ 6EDL7141 also has a full suite of system protection features to improve system robustness in severe operating fault conditions. The threshold voltage and filter times of failure behavior are adjustable via SPI. Monitored parameters include motor voltages and currents, gate drive voltage and currents, device temperature, and rotor locked inst

The MOTIX™ 6EDL7151 is 3-phase a smart gate driver IC that enables the development of high-performance battery-operated products using BLDC or PMSM motors. The MOTIX™ 6EDL7151 is fully configurable to drive a wide range of MOSFETs to yield the best possible system efficiency and has a full suite of system protection features including VDS Sensors to improve system robustness in severe operating fault conditions.