DM300024 Microchip Technology, DM300024 Datasheet - Page 20

• Manufacturer Part Number: DM300024
• Description: KIT DEMO DSPICDEM 1.1
• Manufacturer: Microchip Technology
• Type: MCUr

Specifications of DM300024

• Contents: Board, Cable, CD, Power Supply
• Silicon Manufacturer: Microchip
• Core Architecture: DsPIC
• Core Sub-architecture: DsPIC30F
• Features: Serial Communication Channels Interface, General Purpose Prototyping Area
• Silicon Core Number: DsPIC30F, DsPIC33F
• Silicon Family Name: DsPIC30F6xxx, DsPIC33FJxxGPxxx
• Rohs Compliant: Yes
• Lead Free Status / RoHS Status: Lead free / RoHS Compliant
• For Use With/related Products: dsPIC30F/33F and PIC24H
• Lead Free Status / RoHS Status: Lead free / RoHS Compliant, Lead free / RoHS Compliant

Power Factor Correction (PFC) by Average Current Mode
Control is illustrated using a Digital Signal Controller
(DSC). Applications such as motor control, power control,
Uninterruptible Power Supplies (UPS), and Switched Mode
Power Supplies (SMPS) can be combined with this PFC
algorithm and implemented on a single chip. (Application
Note: AN1106)
This application note explains the basics of different types of
SMPS topologies and their applications. The pros and cons
of different SMPS topologies are also explained to guide the
user to select an appropriate topology for a given application,
while providing useful information regarding selection of
components for a given SMPS design. (Application Note:
AN1114)
This application note describes a fully-tested sensorless
control algorithm for a 3-phase BLDC motor. Motor current,
motor velocity and bus voltage are regulated in control loops.
An LCD menu interface provides adjustment of all sensorless
motor control parameters. This application solution utilizes a
dsPIC30F6010 device and the dsPICDEM MC1 development
system. (Application Note: AN901)
This application note describes a fully-tested vector, or field
oriented, control algorithm for a 3-phase ACIM. The motor
currents, torque and velocity are regulated in control loops.
Full documentation and source code are available for free on
the Microchip web site. (Application Note: AN908)
This application note describes a fully-tested 3-phase
BLDC motor control algorithm with 3 hall-effect sensors.
Code is available with and without a PI speed control loop.
(Application Note: AN957)
This application note is an introductory approach to the
methods described in AN908. Code is provided in an
example that offers basic variable speed control of a single
or three-phase ACIM. (Application Note: AN984)
Power Conversion and Motor Control Application Software
The Motor Control Family is suited for advanced AC Induction Motor (ACIM), Brushless DC (BLDC) and Switched Reluctance
(SR) motor applications. Two advanced applications are available that run on the dsPIC30F Motor Control Development
System. Full documentation and source code are available for free on the Microchip web site for all application notes.
Visit the Motor Control Design Center at www.microchip.com/motor for more information about Microchip’s motor control
solutions.
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Power Factor Correction in Power Conversion
Applications Using the dsPIC® DSC
Switch Mode Power Supply (SMPS) Topologies
Sensorless BLDC Motor Control Using the
dsPIC30F6010
Vector Control of an ACIM
Sensored BLDC Motor Control
Introduction to ACIM Control
16-bit Embedded Control Solutions
This application note describes how to provide sensorless
BLDC motor control with the dsPIC30F2010 device. The
technique used is based on another Microchip application
note: Using the dsPIC30F for Sensorless BLDC Control
(AN901). This application solution and AN957 present a low
pin count solution with minimal I/O and use the PICDEM™
MC LV system with a dsPIC30F2010 device. (Application
Note: AN992)
This application note provides a fully working and highly
fl exible solution for using the dsPIC30F2010 to control
a permanent magnet synchronous motor using all shunt
windings to predict rotor position. (Application Note: AN1017)
This application note describes how to apply a dsPIC DSC to
control a sensorless BLDC motor, using the dsPIC30F6010A
device on a dsPICDEM™ MC LV board platform. (Application
Note: AN1083)
This application note describes how to apply a dsPIC DSC to
control a permanent magnet synchronous motor using the
field oriented control algorithm. Shunt resistors are used to
estimate rotor position. (Application Note: AN1078)
This application note describes a sensorless Brushless
Direct Current (BLDC) motor control algorithm, implemented
using the dsPIC® Digital Signal Controller (DSC). The
algorithm works by the use of a majority function for digitally
filtering the Back-Electromotive Force (BEMF). Each phase of
the motor is filtered to determine when to commutate the
motor drive voltages. This control technique excludes the
need for discrete, low-pass filtering hardware and off-chip
comparators. (Application Note: AN1160)
This application note presents a solution for sensorless Field
Oriented Control (FOC) of induction motors using a dsPIC®
Digital Signal Controller (DSC). The benefits of field oriented
control can be directly realized as lower energy consumption,
higher efficiency, lower operating costs and reduced cost of
drive components. (Application Note: AN1162)
Sensorless BLDC Motor Control Using the
dsPIC30F2010
Sinusoidal PMSM Motor Control
Sensorless BLDC Control with Back-EMF
Filtering
Sensorless Field-Oriented Control for
PMSM Motors
Sensorless BLDC Control with Back-EMF
Filtering Using a Majority Function
Sensorless Field Oriented Control (FOC) of an
AC Induction Motor (ACIM)