CCS C APPLICATIONS PROTEUS SIMLATIONS

Summary of CCS C APPLICATIONS PROTEUS SIMLATIONS


This archive collects numerous CCS C sample applications and Proteus simulation circuits (C source and HEX/Isis files) for PIC microcontroller projects, mainly using PIC16F876/877 and PIC18F4520/4550 for USB. It includes tutorials and example projects covering LEDs, counters, LCD menus, timers, PWM/CCP, ADC, sensors, motor control, PID temperature control, serial/I2C communication, RTC, USB CDC, and Proteus diagrams.

Parts used in theCCS C Applications Proteus Simulations:

  • PIC16F876 microcontroller
  • PIC16F877 microcontroller
  • PIC18F4520 microcontroller
  • PIC18F4550 microcontroller
  • LEDs
  • 7-segment displays
  • Character and graphical LCDs
  • 3x4 matrix keypad
  • Push buttons
  • DC motors
  • NTC thermistor
  • Pressure sensor (for barometer/altimeter)
  • Tachometer/digital speed sensor components
  • Timers/TMR modules (TMR0, TMR1, TMR2)
  • CCP/PWM modules
  • ADC input circuitry (e.g., voltage dividers)
  • I2C EEPROM
  • I2C temperature sensor
  • Real-time clock (RTC) module
  • USB CDC interface components
  • Proteus simulation files (Isis/HEX/C source)

Previously shared CCS C sample application circuit code archive (C and Hex Isis) is a large archive with all source codes and proteus simulation circuits such as CCS C projects shared in the font…. Electronics Projects, CCS C Applications Proteus Simlations “microchip projects, microcontroller projects, pic16f876 projects, pic16f877 projects, pic18f2550 projects, pwm circuits, “

ccs-c-applications-proteus-simlations

Previously shared CCS C sample application circuit code archive (C and Hex Isis) is a large archive with all source codes and proteus simulation circuits such as CCS C projects shared in the font.

In a majority of CCS C projects, pic16f876 and pic16f877 microcontrollers are used. In projects with USB communication, pic18f4520 pic18F4550 is used.

CCS C PROJECT LIST

T3.E1: Turn on a LED with a switch.

T3.E2: Decimal counter from 0 to 99 with 7 segments.

T3.E3: To control a menu on the LCD with two push buttons.

T3.E4: Displaying the status of a port entry via a graphical display

T3.E5: Displaying data of 3×4 matrix keyboard on LCD.

T3.E6: Access control with keyboard.

T3.E7: Control the speed of a DC motor with the keyboard.

T4.E1: Opening and closing the Led with external cut.

T4.E2: 1 KHz signal generation via TMR0.

T4.E3: 1 second delay generation via TMR1.

T4.E4. Measuring pulse width using TMR1 and external cut.

T4.E5: Generating a 1 KHz signal via TMR2.

T4.E6: Control the speed of a DC motor with the keyboard. Using TMR1. Digital tachometer

T4.E7: Multi-function with one key.

T5.E1: Reading a voltage from channel AN0.

T5.E2: Thermometer with NTC.

T5.E3: NTC and pressure sensor barometer / Altimeter.

T5.E4: Acquisition of negative tensions.

T6.E1: Measurement of a pulse width using the CCP module.

T6.E2: Generating a 2 KHz signal via the CCP module.

T6.E3: Conversion of AD to CCP module. Producing a PWM signal proportional to the measured signal.

T6.E4. Basic oscilloscope with CCP module and graphical display.

T6.E5: PID control of oven temperature.

T6.E6: Problems in the PWM simulation of the CCP module.

T7.E1: PIC serial communication

T7.E2: Serial communication from PIC to PC.

T7.E3: PC communication to the PIC (two-way).

T7.E4. An I2C series EEPROM write / read.

T7.E5: Reading the I2C temperature sensor, an I2C real-time clock for storage of your data in the I2C series EEPROM. Read EEPROM data via serial port.

T8.E1: Real-time clock with PIC18F4520.

T8.E2: Self-regulating voltage amplifier with PIC18F4520.

T9.E1: PID control of an oven temperature with RTOS. More visualization control. Check more screens and programming with the PIC18F4520.

T10.E1: CDC USB.

T10.E2: CDC USB.

SAMPLE PROTEUS CIRCUIT DIAGRAMS

SAMPLE PROTEUS CIRCUIT DIAGRAMS (1)

SAMPLE PROTEUS CIRCUIT DIAGRAMS (2) SAMPLE PROTEUS CIRCUIT DIAGRAMS (3) SAMPLE PROTEUS CIRCUIT DIAGRAMS (4)

Source: CCS C APPLICATIONS PROTEUS SIMLATIONS

Alternative File Download LINK list (in TXT format): LINKS-25948.zip

Quick Solutions to Questions related toCCS C Applications Proteus Simulations:

  • What microcontrollers are mainly used in these CCS C projects?
    The projects mainly use PIC16F876 and PIC16F877; USB projects use PIC18F4520 and PIC18F4550.
  • Does the archive include Proteus simulation circuits?
    Yes, the archive includes Proteus simulation circuits (Isis) along with C source and HEX files.
  • Can I find examples of PWM and CCP module projects?
    Yes, there are multiple projects demonstrating PWM and CCP module usage, including PWM generation and PWM-related problems.
  • What kinds of sensor projects are included?
    Included are projects like NTC thermometer, pressure sensor barometer/altimeter, and I2C temperature sensor examples.
  • Is USB communication covered in the archive?
    Yes, USB communication projects are included, such as CDC USB examples using PIC18F4520/4550.
  • Are serial and I2C communication examples provided?
    Yes, the archive contains serial communication examples (PIC to PC, two-way) and I2C EEPROM and sensor read/write examples.
  • Does the archive include timing and timer examples?
    Yes, it includes multiple timer examples using TMR0, TMR1, and TMR2 for signal generation, delays, and pulse measurements.
  • Are there motor control and tachometer projects?
    Yes, several projects demonstrate DC motor speed control via keyboard input and using timers for digital tachometer functionality.
  • Is PID temperature control demonstrated?
    Yes, PID control of oven temperature is included, with examples for PIC16 and PIC18 with RTOS visualization.
  • Where can I download the archive files?
    The article provides an alternative download link list named LINKS-25948.zip.

About The Author

Ibrar Ayyub

I am an experienced technical writer holding a Master's degree in computer science from BZU Multan, Pakistan University. With a background spanning various industries, particularly in home automation and engineering, I have honed my skills in crafting clear and concise content. Proficient in leveraging infographics and diagrams, I strive to simplify complex concepts for readers. My strength lies in thorough research and presenting information in a structured and logical format.

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