PIC Micro Controllers Training
Learn PIC microcontroller architecture, PIC16 and PIC18 concepts, Embedded C, registers, memory, GPIO, timers, counters, interrupts, ADC, PWM, UART, SPI, I²C, sensor interfacing, debugging and practical embedded-system development.
Build Practical Microcontroller Firmware with PIC
PIC microcontrollers provide integrated processing, memory and peripheral resources for dedicated electronic control applications. This program combines architecture study, Embedded C and hands-on peripheral interfacing.
PIC Embedded Development
The NCVT PIC Micro Controllers program introduces PIC architecture and key concepts from PIC16 and PIC18 device families before moving into firmware and peripheral programming.
Learners work with digital I/O, timers, interrupts, ADC, PWM, serial communication and external electronic hardware to understand complete microcontroller applications.
Controller + Firmware + Hardware
Understand how Embedded C configures microcontroller registers and peripherals to read sensors, process information, communicate with other devices and control physical outputs.
Three Foundations of PIC Development
PIC Architecture
Learn CPU architecture, memory, registers, PIC16/PIC18 concepts, GPIO and integrated peripherals.
Embedded C Firmware
Develop firmware using Embedded C, bit operations, register programming, functions and modular logic.
Peripheral Interfacing
Configure GPIO, timers, interrupts, ADC, PWM, UART, SPI and I²C for real applications.
Practical PIC Microcontroller Training
What You Will Learn
Architecture & Firmware
- PIC microcontroller fundamentals
- PIC16 family concepts
- PIC18 family concepts
- CPU architecture
- Program memory
- Data memory
- Registers and control bits
- Configuration concepts
- Embedded C programming
- Bitwise programming
- Register-level programming
- Firmware debugging
Peripherals & Interfaces
- GPIO programming
- Digital input / output
- Timers and counters
- Interrupt programming
- ADC interfacing
- Analog sensor acquisition
- PWM generation
- Motor-control concepts
- UART communication
- SPI communication
- I²C communication
- Sensor and actuator interfacing
Technologies Covered
Understand the Complete PIC Embedded System
Learn how processing, memory, peripheral registers, firmware and external hardware combine inside a practical PIC-based application.
CPU
Executes firmware instructions and program logic.
Memory
Stores program code, variables and configuration.
Registers
Configure controller functions and peripherals.
Peripherals
GPIO, timers, ADC, PWM and communication.
Application
Sensors, displays, motors, relays and devices.
Learn the Peripherals Used in Real Embedded Applications
GPIO
Read switches and sensors and control LEDs, relays and digital outputs.
Timers & Counters
Generate delays, periodic events, measurements and timing operations.
Interrupts
Respond efficiently to hardware and peripheral events.
ADC
Convert analog sensor signals into values processed by firmware.
PWM
Generate controlled duty cycles for motors, LEDs and power applications.
UART
Exchange asynchronous serial data with external equipment.
SPI
Interface sensors, memory and peripherals using synchronous communication.
I²C
Connect addressed sensors, displays and other embedded peripheral devices.
PIC Micro Controllers Training Curriculum
Progress from PIC architecture and Embedded C into peripheral programming, communication, hardware interfacing, debugging and complete embedded application development.
Introduction to PIC Microcontrollers
Microcontroller fundamentals, PIC families, embedded-system concepts and typical control applications.
PIC Architecture
CPU architecture, registers, buses, program memory, data memory and peripheral organization.
PIC16 & PIC18 Families
PIC16 and PIC18 concepts, architecture, peripheral capabilities and development considerations.
Development Environment & Device Configuration
Project structure, compiler/toolchain concepts, device selection, configuration settings and firmware build process.
Embedded C Programming
Variables, operators, functions, arrays, pointers, structures, bitwise operations and firmware-oriented programming.
Registers & Memory Programming
Control registers, status registers, memory concepts, bit fields and register-level peripheral control.
GPIO Programming
Digital input/output, switches, LEDs, relays and external hardware control.
Timers & Counters
Timer configuration, delays, periodic operations, counters and event-timing applications.
Interrupt Programming
Interrupt sources, interrupt enable, interrupt service routines, priority concepts and event-driven firmware.
ADC & Analog Interfacing
Analog-to-digital conversion, channels, reference concepts, sensor acquisition, scaling and measurements.
PWM & Output Control
Pulse-width modulation, frequency, duty cycle, motor-speed concepts, LED control and output applications.
UART Communication
Serial data, baud rates, transmit/receive operations, framing and communication with external equipment.
SPI Communication
Clocked serial communication, controller/device concepts, data transfer, chip select and peripheral interfacing.
I²C Communication
Device addressing, SDA/SCL signals, controller/device communication and interfacing sensors or peripheral devices.
Hardware Interfacing & Debugging
Sensors, LCDs, relays and actuators, firmware debugging, hardware testing and troubleshooting.
Complete PIC Embedded Project
Develop a complete microcontroller application combining sensing, digital control, timing, communication and output functions.
From Requirement to Working PIC Controller
Follow the practical workflow used to build and validate microcontroller-based applications.
Define
Understand system requirements.
Configure
Configure MCU and peripherals.
Program
Develop Embedded C firmware.
Build
Compile and prepare firmware.
Debug
Test hardware and software.
Integrate
Validate the complete application.
PIC Microcontroller Projects
Digital Control System
Read switches and sensors and operate LEDs, relays or other digital outputs.
Temperature Monitoring System
Acquire an analog temperature signal using ADC and process the measurement in firmware.
PWM Motor Control
Generate PWM and apply duty-cycle control to a motor-control application.
LCD Monitoring Interface
Display sensor, process or controller information on an LCD interface.
UART Communication System
Exchange data between the PIC microcontroller and external equipment through serial communication.
Sensor-Based Automation
Combine sensors, control logic, timing and outputs into a complete embedded automation application.
Where PIC Microcontroller Skills Are Applied
Who Can Join?
- Electrical Engineering Students
- Electronics Engineering Students
- Instrumentation Students
- Embedded Systems Students
- Automation Engineers
- Firmware Developers
- Robotics Students
- IoT Developers
- Computer Engineering Students
- Diploma Engineering Students
- Electronics Technicians
- Working Professionals
Career & Skill Direction
- Embedded Systems Engineer
- Embedded Software Engineer
- Firmware Engineer
- Microcontroller Programmer
- Electronics Engineer
- Instrumentation Engineer
- Embedded Test Engineer
- Automation Engineer
- IoT Firmware Engineer
- Robotics Engineer
- Product Development Engineer
Continue Your Embedded Systems Training
PIC Micro Controllers FAQs
What is a PIC microcontroller?
PIC is a family of microcontrollers developed by Microchip Technology and used in embedded control, electronics, instrumentation and many dedicated applications.
What are PIC16 and PIC18?
PIC16 and PIC18 are microcontroller families within the wider PIC range. Individual devices provide different memories, peripherals and capabilities.
Is Embedded C included?
Yes. Embedded C programming is used throughout the course for register configuration, GPIO, timers, interrupts, ADC, PWM and communication.
Are GPIO, timers and interrupts covered?
Yes. Digital I/O, timer and counter programming, interrupts and event-driven firmware are important parts of the curriculum.
Will I learn ADC?
Yes. Analog-to-digital conversion, sensor interfacing, channel configuration and analog measurement concepts are included.
Is PWM included?
Yes. PWM generation, duty cycle and applications such as motor or LED control are covered.
Are UART, SPI and I²C covered?
Yes. The course covers common embedded communication interfaces including UART, SPI and I²C.
Is sensor interfacing included?
Yes. Digital and analog sensor interfacing is included along with practical controller applications.
Is PIC useful for industrial automation?
PIC microcontrollers can be used in dedicated controllers, sensor systems, instrumentation, motor control and embedded automation applications.
What should I learn after PIC?
Learners can progress into ARM, STM32, advanced Embedded C, RTOS, CAN, CANopen, J1939, Embedded Linux, IoT and robotics.
Does the PIC course include practical projects?
Yes. Practical work includes digital control, sensor monitoring, PWM motor control, displays, serial communication and integrated automation projects.
Start Your PIC Micro Controllers Training
Build practical skills in PIC16 and PIC18 concepts, Embedded C, registers, GPIO, timers, interrupts, ADC, PWM, UART, SPI, I²C, sensors, debugging and embedded application development.
Contact NCVT for PIC Training →