Projects   /   Development Boards & Kits   /   PIC16F877A

OSCILLOSCOPE CIRCUIT WITH MAX492 PIC16F877 GRAPHIC LCD

Oscilloscope circuit project pic16f877-20 (20 MHz) microcontroller based on X 1, x 10 entries MAX492 Rail-to-Rail Op Amp input via grilimi 5v indicator

Published

At a glance

CategoryDevelopment Boards & Kits
PIC modelPIC16F877A
IncludesCircuit diagram · Download files
Reading time~2 min

Summary of OSCILLOSCOPE CIRCUIT WITH MAX492 PIC16F877 GRAPHIC LCD

Summary: A PIC16F877-20 (20 MHz) microcontroller-based oscilloscope project using a MAX492 rail-to-rail op amp front end, selectable X1 and X10 inputs, and a 128×64 PG12864 graphic LCD (GLCD) for display. The system runs from a 9 V DC power supply and includes source code in ASM and HEX for firmware.

Parts used in the Oscilloscope Circuit with MAX492:

  • PIC16F877-20 microcontroller (20 MHz)
  • MAX492 rail-to-rail operational amplifier
  • PG12864 128×64 graphic LCD (GLCD)
  • Input selector for X1 and X10 probe attenuation
  • 5 V indicator circuit (grilimi style)
  • 9 V DC power supply
  • Circuit assembly components (PCB, connectors, wiring)
  • Firmware files (ASM source and HEX codes)

Oscilloscope circuit project pic16f877-20 (20 MHz) microcontroller based on X 1, x 10 entries MAX492 Rail-to-Rail Op Amp input via grilimi 5v indicator as 128 × 64 glcd (PG12864) graphic lcd. Oscilloscope circuit power... Electronics Projects, Oscilloscope Circuit with MAX492 PIC16F877 Graphic LCD "microchip projects, microcontroller projects, pic16f877 projects, "

OSCILLOSCOPE CIRCUIT

Oscilloscope circuit project pic16f877-20 (20, MHz) microcontroller based on X 1, x 10 entries MAX492 Rail-to-Rail Op Amp input via grilimi 5v indicator as 128 × 64 glcd (PG12864) graphic lcd. Oscilloscope circuit power supply 9v dc

The application schema, the circuit source assemly asm, hex codes for detailed description.

OSCILLOSCOPE CIRCUIT (1)

Source: OSCILLOSCOPE CIRCUIT WITH MAX492 Alternative link: oscilloscope-circuit-with-max492-pic16f877-graphic-lcd.RAR

  • What microcontroller is used in the project?
    The project uses a PIC16F877-20 microcontroller running at 20 MHz.
  • What op amp is used for the input stage?
    The input stage uses a MAX492 rail-to-rail operational amplifier.
  • What display does the oscilloscope use?
    The oscilloscope uses a 128 × 64 PG12864 graphic LCD (GLCD).
  • What probe attenuation options are provided?
    The circuit provides X1 and X10 input selections.
  • What is the power supply requirement?
    The oscilloscope circuit is powered by a 9 V DC supply.
  • Are firmware sources provided?
    Yes, the project includes ASM source code and HEX firmware files.
  • Does the project include a 5 V indicator?
    Yes, it includes a 5 V indicator referred to as grilimi.
  • Where does the project source come from?
    The source is listed as OSCILLOSCOPE CIRCUIT WITH MAX492 with an alternative RAR download link.
Beginner Tutorials · PIC16F877A

PIC16F877 Driving LCD in 4-Bit Mode using PIC16F877 with Proteus Simulation

Introduction This microcontroller project shows how a PIC16F877 can drive an LCD display using 4-bit mode inside a Proteus simulation.The project demonstrates...

Programmers & ICSP · PIC16F877A

EPE PIC/LCD Demo using PIC16F877 with Proteus Simulation

IntroductionThe EPE PIC/LCD Demo is a classic microcontroller project that demonstrates how a PIC16F877 can fully control a PG12864F graphical LCD.Designed as...

Motors & Robotics · PIC16F877A

Efficient Sun-Following Robot: A Solar Tracker with Microcontroller Control

Abstract The impending global challenge of dwindling non-renewable fuel resources underscores the urgency of transitioning towards renewable energy alternatives like solar power....

Development Boards & Kits · PIC18F4520

Voltage Measurement with A PIC Microcontroller

Voltage Measurement with PIC Microcontroller articulates a methodical framework for facilitating analog voltage measurement using the PIC18F4520, an advanced member of Microchip’s...

Development Boards & Kits

Ultra-Low Power: Microcontroller Standby Current to 130uA with OPEnS Power Control Board

At the OPEnS Lab, a key focus for our projects is achieving exceptionally long battery life. This was particularly true for the...

Development Boards & Kits

An Integrated Approach to Developing Applications with Microchip PIC Microcontrollers

1. Introduction In our daily lives, a variety of devices such as telephones, household appliances, and cars incorporate "smart" electronics, typically manifested...

Ibrar Ayyub

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...