tailieunhanh - 201ASP

Use MPLAB and the ICD to set a “breakpoint” in the code to view the changing value of the register named “push_count” | 201ASP Mid-Range Family Peripheral Configuration and Assembly Programming Objectives At the end of this class you will: Understand the basic PICmicro peripherals and their associated registers Have “HANDS ON” experience initializing Mid-Range peripherals Be able to implement peripherals not covered here Understand interrupts and polling Write your own application code from “scratch” You will have gained experience with Mid-Range family peripherals and Microchip’s documentation standards allowing you to easily understand peripherals not specifically covered in this class. You will also be able to write an application program “from scratch” including the ability to operate peripherals, set up the system clocking and power saving modes, debug the program and generate production code To get the most from this Class Ideally you should be familiar with the following: Assembler programming Basic Mid-Range family Instruction set Data and Program memory organization MPLAB Integrated Development Environment Microchip ICD2 debugger 201ASP Agenda Brief review of Mid-Range Architecture, Instruction Set and Tools Interrupts on the Mid-Range PICmicro Interrupts Lab Peripheral discussion: Input/Output Ports Timers Timer0 Timer1 Timer1 Lab Timer2 Timer2 Lab 201ASP Agenda (cont.) Capture / Compare / PWM Module (CCP) PWM and Output Compare Labs Analog Comparator Analog to Digital Converters (ADC) ADC Lab Addressable Universal Asynchronous & Synchronous Receiver & Transmitter (AUSART) I2C with the Master Synchronous Serial Port I2C Based Temp Sensor Lab Wrap-Up and additional questions Mid-Range Family Basic Architecture and Development Tools Mid-Range PIC Block Diagram ADC TIMER0 MUX ALU AUSART MSSP PERIPHERALS WORKING REGISTER STATUS REGISTER Pages of Program Memory Banks of Data Memory INSTRUCTION REGISTER 8-bit value from instruction 14-bits PROGRAM COUNTER *Presenter: This information should be presented as only a very brief review. This is a very simplified block diagram | 201ASP Mid-Range Family Peripheral Configuration and Assembly Programming Objectives At the end of this class you will: Understand the basic PICmicro peripherals and their associated registers Have “HANDS ON” experience initializing Mid-Range peripherals Be able to implement peripherals not covered here Understand interrupts and polling Write your own application code from “scratch” You will have gained experience with Mid-Range family peripherals and Microchip’s documentation standards allowing you to easily understand peripherals not specifically covered in this class. You will also be able to write an application program “from scratch” including the ability to operate peripherals, set up the system clocking and power saving modes, debug the program and generate production code To get the most from this Class Ideally you should be familiar with the following: Assembler programming Basic Mid-Range family Instruction set Data and Program memory organization MPLAB Integrated .

• Điện - Điện tử
• controller design
• robotic arms
• 8085 processors
• equipment manufacturers
• industrial manipulators
• engine work
• pulse power
• control signals
• Fractional order control system
• FOPID controller
• Disturbance rejection control
• Computer aided optimal controller design
• Disturbance rejection FOPID controller design
• Adaptive controller
• Fuzzy controller
• Synchronous motors
• T S fuzzy model
• Adaptive fuzzy controller
• External disturbances
• International Journal of Computer Science and Telecommunications
• Optimized FPGA design
• Neuro fuzzy controller for PMSM drives
• Neuro fuzzy controller
• Field programmable gate array
• Finite state machine
• Embedded Controller Hardware Design
• hardware design checklist
• Digital Hardware Concepts
• Hierarchical Computer Organization
• detailed design
• Programmable Logic
• Remote controller
• automation curriculum
• motor speed controller
• microcontroller applications
• amplifier
• Lecture Digital Design with the Verilog HDL
• Digital Design with the Verilog HDL
• Datapath and Controller
• Digital systems classification
• Control dominated
• Data dominated
• Lecture Digital Logic & Design
• Bài giảng Thiết kế logic số
• Digital logic design
• Equation for the traffic light controller
• Circuit diagram of the traffic light controller
• Equation for the turning on/off traffic lamps
• Journal of Automation and Control Engineering
• Interval type 2 fuzzy sliding mode controller
• Fuzzy sliding mode controller for hypersonic aircraft
• Robust flight control
• Enhancing car ride comfort
• A balanced controller design for semi active suspension system
• Semi active suspension system
• The vertical acceleration
• The vehicle body
• PID Controller
• Their Design Methods
• PID Controller Desig
• Specified Performance
• PID Controllers
• Tuning Criteria
• PID Like Controller
• Design Patterns Model – View – Controller
• Observer pattern
• Observer class diagram
• Transactions happen
• Observer rocks
• Architecture diagram
• Design a fuzzy controller
• Magnetic levitation sysem in the laboratory
• Magnetic levitation system
• The magnetic levitation systems
• High speed maglev train
• International Journal of Computer Science & Communication Networks
• Design of robust speed controller
• Optimization techniques for DTC IM drive
• DTC IM drive
• Sliding Mode Control
• Design of LQG controller
• Operational amplifiers for motion control systems
• Linear quadratic gaussian
• Linear quadratic regulator
• Linear quadratic estimator
• Shunt active power filter
• Proportional Integral controller
• Genetic Algorithm
• Switching frequency
• Hysteresis current controller
• electronic circuit design
• software
• remote control
• the motor speed control
• curriculum automation
• Simulink modelsim co simulation
• Sensorless PMSM speed controller
• Space vector pulse width modulation
• Electronic Design Automation
• Flexible robot
• Condition boundary
• Position accuracy
• Particle swarm optimization
• Double recurrent fuzzy wavelet
• Industrial robot manipulator
• Unknown dead zone friction
• De icing robot manipulator
• Design adaptive robust neural network controller
• Mastering Python Design Patterns
• Ebook Mastering Python Design Patterns
• Model view controller pattern
• The proxy pattern
• Chain of responsibility pattern
• Sliding mode controller
• The 2D motion of an overhead crane
• Varying cable length
• The crane system
• Under actuated systems
• International Journal of Computer Networks and Communications Security
• Neural controller applied a level system in hart protocol
• Level system in hart protocol
• Advanced control technique
• Reactor period
• Reactor power
• Moving average filter
• Period measurement in the start range
• FPGA based controller for power