International Research Journal of Engineering and Technology (IRJET)
e-ISSN: 2395 -0056
Volume: 03 Issue: 08 | Aug-2016
p-ISSN: 2395-0072
www.irjet.net
AN INTEGRATED CIRCUIT DESIGN TO MAINTAIN THE BOOST CONVERTER KODAM SRUTHI 1, D.KUMARASWAMY 2, B.RAJENDER 3 1 M.TECH STUDENT, EEE DEPARTMENT, SVS GROUP OF INSTITUTIONS, WARANGAL, TELANGANA. 2 ASSOCIATE PROFESSOR, EEE DEPARTMENT, SVS GROUP OF INSTITUTIONS, WARANGAL, TELANGANA. 3
ASSOCIATE PROFESSOR & HOD, EEE DEPARTMENT, SVS GROUP OF INSTITUTIONS, WARANGAL, TELANGANA. ---------------------------------------------------------------------***---------------------------------------------------------------------
Abstract - A brand new integrated circuit for motor drives
control can be used because of not invoking additional
with dual mode control for EV/HEV programs is suggested.
switching and passing deficits under light-load condition.
Therefore, the suggested integrated circuit can considerably lessen the volume and weight from the system. The integrated
Key Words: Boost converter, inverter, motor
circuit presented within this paper can behave as an inverter
drives.
along with a boost ripper tools with respect to the operation
1.INTRODUCTION : In parallel hybrid electric vehicle
mode. For that integrated circuit, it although lessen the
(HEV) and electric vehicle (EV) system, the ripper tools can
volume and weight but additionally boost torque and
be used for enhancing battery current to ranked electricity
electricity-link current for motor/ ripper tools modes,
bus to have an inverter they are driving motor [1]. Within
correspondingly. In motor mode, the suggested integrated
the multi motor drive system, the machine uses several
circuit functions being an inverter also it turns into a boost-
motors to improve torque, especially under low speed and-
type boost ripper tools, when using the motor windings
torque region the suggested integrated circuit enables the
because the boost inductors to improve the ripper tools output
magnet synchronous motor (PMSM) to function in motor
current. Furthermore, a brand new control way of the
mode or functions as boost inductors from the boost ripper
suggested integrated circuit under boost ripper tools mode is
tools, and therefore, boosting the output torque combined
suggested to improve the efficiency. The suggested integrated
towards the same transmission system or electricity-link
circuit enables the magnet synchronous motor to function in
current of the inverter attached to the creation of the
motor mode or functions as boost inductors from the boost
integrated circuit. In motor mode, the suggested integrated
ripper tools, and therefore boosting the output torque
circuit functions being an inverter also it turns into a boost-
combined towards the same transmission system or electricity-
type boost ripper tools, when using the motor windings
link current from the inverter attached to the creation of the
because the boost inductors to improve the ripper tools
integrated circuit. The suggested control technique is by using
output current. Therefore, the suggested integrated circuit
interleaved control to considerably lessen the current ripple
can considerably lessen the volume and weight from the
and therefore lowering the deficits and thermal stress under
system [2]. The integrated circuit presented within this
heavy-load condition. Experimental results produced from
paper can behave as an inverter along with a boost ripper
digital-controlled 3-kW inverter/ripper tools using digital
tools with respect to the operation mode. For that integrated
signal processing show the current boost ratio can move up to
circuit, it although lessen the volume and weight but
600Wto 3 kW. And also the efficiency is 93.83% under full-load
additionally boost torque and electricity-link current for
condition and keeps the motor temperature in the atmosphere
motor/ ripper tools modes, correspondingly. Furthermore, a
level. These results fully read the stated merits for that
brand new control way of the suggested integrated circuit
suggested integrated circuit. In comparison, single phase
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