| | | | | | | | | Mobile robot designs require high power density coupled with high-torque capabilities. What motors and other factors are making this happen? |
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Advertisement | | Every day, consumers interact with systems that assess their surroundings and act accordingly. In this article, we explain the functional blocks of a real-time control system and provide an example of a robotics application. |
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| | Advertisement | MCT8316A provides a single-chip, code-free sensorless trapezoidal solution for customers requiring high speed operation (up to 3kHz electrical) or very fast startup time (<50ms) for 12- to 24-V brushless-DC motors up to 8-A peak current. |
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| | | TMS320F280025C is a member of the C2000™ real-time microcontroller family of scalable, ultra-low latency devices designed for efficiency in power electronics, including but not limited to: high power density, high switching frequencies, and supporting the use of GaN and SiC technologies. |
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| | | | Advertisement | | In this article, we take a closer look at the first functional block of real-time control systems – sensing – and discuss how to optimize data capture for real-time control systems by paying attention to certain sensor parameters. |
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| | This e-book provides a variety of often used system-level design formulae and important real-time control concepts to help facilitate your real-time control application design. |
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| | Designing systems with BLDC motors can be challenging, because it usually requires complex hardware and optimized software designs to deliver reliable real-time control. In this article, we discuss three methods to speed BLDC motor system design, while still delivering an energy efficient, smarter and smaller solution. |
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| | Sponsored by Texas Instruments | |
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