PIC16LF1776-E/SO
PIC16LF1776-E/SO - 8-Bit MCU, 14KB Flash, 32MHz, 28-SOIC | Microchip
The Microchip Technology PIC16LF1776-E/SO is an 8-bit PIC® XLP™ 16F microcontroller delivering 32 MHz CPU performance with 14 KB Flash, 1 KB RAM, and a rich set of intelligent analog and digital peripherals in a 28-pin SOIC package. The part integrates a 10-bit DAC, operational amplifiers, high-speed comparators, zero-cross detect, programmable ramp generator, and 10/16-bit PWMs for mixed-signal designs. Wide operating voltage down to the LF voltage range and XLP (eXtreme Low Power) features suit battery-powered applications.
A PIC® microcontroller is a compact, self-contained computer-on-a-chip built around an 8-bit Harvard RISC core. Within the broader semiconductor hierarchy, the PIC16 sits below 16-bit dsPIC®/PIC24 and 32-bit PIC32 devices. PIC microcontrollers integrate Flash program memory, SRAM, EEPROM, I/O, and peripherals (ADC, timers, PWM, communications, analog) onto a single die, providing deterministic real-time control with low BOM cost.
Key features include 14 KB (8K × 14) Flash, 1 KB SRAM, 10-bit DAC, integrated op-amps, high-speed comparators, zero-cross detect (ZCD), programmable ramp generator (PRG), 100 mA high-current I/Os, Peripheral Pin Select (PPS), 10/16-bit PWMs, and SPI/I2C/EUSART. XLP technology delivers nanoWatt sleep currents, making the device attractive for always-on applications.
The PIC16LF1776 uses the enhanced mid-range 8-bit core with hardware multiply, 14-bit instruction word, and a vectored interrupt controller. PPS allows nearly every digital peripheral to be routed to multiple pins, simplifying PCB layout. Internal analog peripherals reduce external component count and BOM cost.
Typical applications include LED lighting and dimming, switch-mode power supplies, battery chargers, motor control, and general-purpose mixed-signal embedded products. Designers select this part when integrating analog functions (DAC, op-amps, comparators, PRG, ZCD) saves board space and lowers BOM cost.
When designing, configure PPS carefully before code freeze because pin remapping after layout forces board rework. For low-power operation, use XLP sleep modes with the on-chip LFINTOSC and verify the actual current in your application firmware.
This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet.
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