PIC16C773T-I/SO

Product Overview

Category

The PIC16C773T-I/SO belongs to the category of microcontrollers.

Use

This microcontroller is commonly used in various electronic applications that require embedded control and processing capabilities.

Characteristics

• High-performance 8-bit RISC architecture
• Flash-based program memory
• Wide operating voltage range
• Low power consumption
• Integrated peripherals for enhanced functionality
• Robust communication interfaces

Package

The PIC16C773T-I/SO is available in a small outline (SO) package, which ensures ease of integration into compact electronic devices.

Essence

The essence of this microcontroller lies in its ability to provide efficient and reliable control and processing capabilities in a compact form factor.

Packaging/Quantity

The PIC16C773T-I/SO is typically packaged in reels, with each reel containing a specific quantity of microcontrollers. The exact quantity may vary depending on the manufacturer's specifications.

Specifications

• Architecture: 8-bit RISC
• Program Memory Size: 7KB
• RAM Size: 368 bytes
• Operating Voltage Range: 2.0V to 5.5V
• Maximum Speed: 20 MHz
• Number of I/O Pins: 35
• Communication Interfaces: UART, SPI, I2C
• Timers/Counters: 3
• Analog-to-Digital Converter (ADC): 10-bit, 8 channels

Detailed Pin Configuration

The PIC16C773T-I/SO features a total of 35 I/O pins, each serving a specific purpose. The detailed pin configuration is as follows:

1. VDD - Power supply voltage
2. RA0 - General-purpose I/O pin
3. RA1 - General-purpose I/O pin
4. RA2 - General-purpose I/O pin
5. RA3 - General-purpose I/O pin
6. RA4 - General-purpose I/O pin
7. RA5 - General-purpose I/O pin
8. VSS - Ground
9. RB0 - General-purpose I/O pin
10. RB1 - General-purpose I/O pin
11. RB2 - General-purpose I/O pin
12. RB3 - General-purpose I/O pin
13. RB4 - General-purpose I/O pin
14. RB5 - General-purpose I/O pin
15. RB6 - General-purpose I/O pin
16. RB7 - General-purpose I/O pin
17. RC0 - General-purpose I/O pin
18. RC1 - General-purpose I/O pin
19. RC2 - General-purpose I/O pin
20. RC3 - General-purpose I/O pin
21. RC4 - General-purpose I/O pin
22. RC5 - General-purpose I/O pin
23. RC6 - General-purpose I/O pin
24. RC7 - General-purpose I/O pin
25. RD0 - General-purpose I/O pin
26. RD1 - General-purpose I/O pin
27. RD2 - General-purpose I/O pin
28. RD3 - General-purpose I/O pin
29. RD4 - General-purpose I/O pin
30. RD5 - General-purpose I/O pin
31. RD6 - General-purpose I/O pin
32. RD7 - General-purpose I/O pin
33. MCLR - Master Clear input
34. OSC1 - Oscillator input
35. OSC2 - Oscillator output

Functional Features

The PIC16C773T-I/SO offers a range of functional features that enhance its capabilities:

• High-performance RISC architecture enables efficient execution of instructions.
• Flash-based program memory allows for easy and flexible program updates.
• Integrated peripherals, such as UART, SPI, and I2C interfaces, enable seamless communication with other devices.
• Timers/counters facilitate precise timing and event counting operations.
• The 10-bit ADC enables analog signal conversion for various sensing applications.

Advantages and Disadvantages

Advantages

• High-performance architecture ensures efficient execution of instructions.
• Flash-based program memory allows for easy program updates.
• Integrated peripherals enhance functionality and enable seamless communication.
• Wide operating voltage range provides flexibility in different power supply scenarios.
• Low power consumption prolongs battery life in portable applications.

Disadvantages

• Limited program memory size may restrict the complexity of applications.
• Limited RAM size may impose constraints on data storage and manipulation.
• Lack of advanced features found in more modern microcontrollers.

Working Principles

The PIC16C773T-I/SO operates based on the principles of a typical 8-bit RISC microcontroller. It executes instructions stored in its flash-based program memory, utilizing its integrated peripherals and I/O pins to interact with external devices. The microcontroller's working principles involve fetching, decoding, and executing instructions in a sequential manner, enabling