An adaptive electric motor controller for electric vehicles
Electric vehicles (EV) such as personal mobility devices (PMD) are becoming increasing popular as an alternative transport solution due to the implementation of Permanent Magnet Synchronous Motors (PMSM) or Brushless DC motors (BLDC). Although commercial viable PMSM and BLDC motors dates back t...
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Format: | Final Year Project |
Language: | English |
Published: |
2017
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Online Access: | http://hdl.handle.net/10356/71370 |
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Institution: | Nanyang Technological University |
Language: | English |
Summary: | Electric vehicles (EV) such as personal mobility devices (PMD) are becoming
increasing popular as an alternative transport solution due to the implementation of
Permanent Magnet Synchronous Motors (PMSM) or Brushless DC motors (BLDC).
Although commercial viable PMSM and BLDC motors dates back to 1930s, they
became popular only in the 1970s partly due to the lack power electronics available to
drive them. Therefore, the design and control of PMSM and BLDC motors still
remains as a popular research topic today.
In this report, the design of an adaptive electric motor controller are explored. One of
the purpose of this design is to aid, but not limited to, ongoing research on PMSM and
BLDC motors. This design can also be used for EV applications.
Concept of how three phase inverter circuit drive PMSM and BLDC motors, and how
regenerative braking is be done on three phase inverter circuits will be introduced. The
DRV8301 integrated circuit is also introduced in this report to drive high power
MOSFETs such as IRFS7530-7PPbF for motor control.
This report also introduces design considerations related to the implementation of
power electronics on Printed Circuit Boards. Concepts that are essentials to Printed
Circuit Board design, such as parasitic effects, conductor width and thermal
management are also explored.
Also, a design flow methodology is adapted and used in this report for the design of
the adaptive electric motor controller. Important concepts on Printed Circuit Board
design that are previously explored are applied to develop the proposed motor
controller. Software, techniques, and work necessary to achieve the objectives are
also documented.
Finally, necessary components are soldered onto the fabricated Printed Circuit board,
which is then tested with Texas Instruments’s Launchxl, Code Composer Studio,
Motorware as well as a Permanent Magnet Synchronous Motor. The result of the
testing is also documented in this report. |
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