Microchip Technology

ATTINY13A-SF - 20MHz 1KB AVR MCU | Microchip Technology

MPN: ATTINY13A-SF ✓ Nakahanda
1.8 V to 5.5 V Vdss 8-pin SOIC Package 20 MHz Speed 1 KB Memory
MOQ: 1 |

ATTINY13A-SF Ulas

Microchip Technology ATTINY13A-SF is a picoPower 8-bit AVR RISC-based microcontroller with 1 KB of ISP Flash, 64 bytes of EEPROM, 64 bytes of SRAM, and a 4-channel 10-bit ADC, operating up to 20 MHz in an 8-pin SOIC package. It supports 1.8 V to 5.5 V operation and delivers up to 20 MIPS throughput at 20 MHz. The ATTINY13A-SF is designed for compact embedded systems where low cost, low power, and deterministic control are more important than memory capacity.

A microcontroller is a programmable control component that combines a CPU core, nonvolatile program memory, working memory, and peripherals on one integrated circuit. The ATtiny13A belongs to the TinyAVR family and uses the AVR enhanced RISC architecture. Its instruction set executes most instructions in a single clock cycle, allowing clock speed to be balanced against power consumption in battery-operated equipment.

The ATTINY13A-SF includes 90 powerful AVR instructions, eight general-purpose working registers, brown-out detection, power-on reset, a watchdog timer, and four 10-bit ADC channels. Its small memory footprint suits simple state machines, sensor interfaces, LED control, timers, and compact consumer accessories. The 20 MHz maximum clock provides additional timing margin for protocol handling and control loops.

The ATtiny13A is based on low-power CMOS technology and is designed for both active and low-power operation. The manufacturer describes the picoPower architecture as a way to optimize power consumption while maintaining execution throughput. The 1.8 V to 5.5 V operating range permits operation from single-cell and low-voltage systems as well as conventional 3.3 V or 5 V rails.

Typical applications include battery-powered sensors, simple LED and motor-control boards, compact remote controls, consumer appliances, hobby projects, and small embedded control modules. The ATTINY13A can be programmed through In-Circuit Serial Programming, while the MPLAB Snap debug interface supports in-circuit debugging through the device I/O and reset lines.

When designing a board, verify the SOIC-8 footprint, pin 1 orientation, supply decoupling, programming access, and the voltage range of every connected peripheral. Use the manufacturer datasheet for the complete pin description, electrical characteristics, fuse settings, and recommended application circuits.

Mga alternatibo na pwedeng ilagay na ATTINY13A-SF — parehas na package, pin-to-pin na katugmang. Hindi kasama ang mga bahagi ng iba't-ibang package na nangangailangan ng pagpapaayos ng PCB.

Variante sa Seri na ito

Katulad na modelo sa serye na katugma sa pagpasok ATTINY13A-SF (parehas na form factor at footprint) — pagkakaiba sa Package, Programming Interface, Register File, ADC Resolution, Architecture.

Microchip Technology
Package: 8-SOIC
Architecture: AVR enhanced RISC
Ikabit sa ATTINY13A-SF →
Microchip Technology
Package: 8-pin SOIC (SO-8, 150 mil)
Programming Interface: In-system serial programming (ISP)
Register File: 32 x 8-bit
Ikabit sa ATTINY13A-SF →
Microchip Technology
Programming Interface: In-system programming and ICSP
ADC Resolution: 10 bits
Ikabit sa ATTINY13A-SF →

ATTINY13A-SSU

✅ Drop-In
Microchip Technology
📦 8-SOIC
AVR enhanced RISC 8-bit · 1 KB (512 x 16) · 64 bytes · 64 bytes · 32 x 8-bit · 20 MHz · Up to 20 MIPS (1 MIPS/MHz) · 1.8 V to 5.5 V

Magkontak para sa presyo

Tingnan ang Datasheet →

ATTINY13A-SNR

✅ Drop-In
📦 8-SOIC
ATtiny13A-SNR is an ATtiny13A ordering variant with the same 1 KB Flash, 64-byte EEPROM, 64-byte SRAM, and 20 MHz core; confirm temperature and suffix-specific ordering details

📋 Alternatibo na Reference (hindi sa katalogo)

ATTINY13A-SH

✅ Drop-In
Microchip Technology
📦 8-SOIC
AVR enhanced RISC · 8-bit microcontroller · 20 MHz · 1 KB · 512 x 16 bits · 64 bytes · 64 bytes · 6 ports

Magkontak para sa presyo

Tingnan ang Datasheet →

ATTINY13A-SU

✅ Drop-In
Microchip Technology
📦 8-SOIC
8-bit AVR RISC-based microcontroller · 20 MHz · 1.8 V to 5.5 V · 1 KB · 512 x 16 bits · 64 bytes · 64 bytes · 32 bytes

Magkontak para sa presyo

Tingnan ang Datasheet →

ATTINY13A-SF Mga Pinakamataas na Rating at Electrical Characteristics

Architecture 8-bit AVR enhanced RISC
Product Family TinyAVR
Maksimum na Taktiko ng Oras 20 MHz
Flash Memory 1 KB
EEPROM Memory 64 bytes
SRAM 64 bytes
Register File 32 bytes
Operating Voltage Range 1.8 V to 5.5 V
Maximum Throughput 20 MIPS at 20 MHz
ADC Resolution 10-bit
ADC Channels 4 channels
General-Purpose Working Registers 8
Instruction Set 90 AVR instructions
Packhaging 8-pin SOIC
Program Memory Type ISP Flash
Peripheral Functions Brown-out detection, power-on reset, PWM, and watchdog timer
Programming Interface In-Circuit Serial Programming (ICSP)

Pin Configuration ng ATTINY13A-SF

SOIC-8 Package Pinout Diagram SOIC-8 8-pin small outline IC, 3.9x4.9mm, P1.27mm, JEDEC MS-012. 1 8 2 7 3 6 4 5 SOIC-8
Pin 1 PB1 — General-purpose input/output pin
Pin 2 PB0 — General-purpose input/output pin
Pin 3 GND — Ground reference
Pin 4 VCC — Power supply input
Pin 5 PB3/ADC3 — General-purpose input/output and ADC channel 3
Pin 6 PB2/ADC2 — General-purpose input/output and ADC channel 2
Pin 7 PB4/ADC4 — General-purpose input/output and ADC channel 4
Pin 8 PB5/ADC5 — General-purpose input/output and ADC channel 5

Tipikal na mga Gamit

ATTINY13A-SF ay nararapat para sa 6 aplikasyons: Battery-Powered Sensor Node, LED Status and Lighting Controller, Compact Remote Control, Simple Motor and Relay Control, IoT Device Interface and State Controller, Embedded Control and Hobby Projects.

🔋

Battery-Powered Sensor Node

The ATTINY13A-SF is well suited to a compact sensor node because its low-power CMOS AVR core operates from 1.8 V to 5.5 V and includes a four-channel 10-bit ADC. Connect the sensor output to the ADC pins, use the timer and watchdog functions for periodic sampling, and place the MCU into a low-power state between measurements. The 1 KB Flash and 64-byte SRAM limit the software to compact filtering and control logic, but they are adequate for simple environmental, contact, or proximity sensing.

💡

LED Status and Lighting Controller

Use the ATTINY13A-SF for LED status indicators, decorative lighting, or a simple dimming controller where the required code size remains small. Its eight general-purpose working registers and PWM peripheral allow multiple indicators or one PWM output to be managed without an external display controller. The 20 MHz clock provides timing headroom for debouncing and animation, while the 1 KB program memory keeps the firmware compact. Use current-limiting resistors or a driver circuit for LED loads.

📱

Compact Remote Control

The ATTINY13A-SF can implement a compact button-based remote control for a consumer accessory, toy, or simple appliance. Its low operating-voltage range supports battery-powered operation, and the fast AVR execution core can debounce switches and encode button events while the device is active. The limited 1 KB Flash is appropriate for a small state machine rather than a large protocol library. Confirm the intended carrier, coding method, and standby-current target before finalizing the board.

🔧

Simple Motor and Relay Control

ATTINY13A-SF can supervise a low-power relay, motor, solenoid, or actuator when the application requires only basic sequencing and limited feedback. Its PWM and timer resources are useful for pulse-width control, while the ADC can monitor an analog feedback signal within its input range. A MOSFET or driver stage is still required for most loads because the MCU pins are control signals, not direct power outputs. Add protection against inductive transients and verify stall-current conditions.

🧩

IoT Device Interface and State Controller

The ATTINY13A-SF can act as the low-power local controller in a small IoT accessory, handling button input, indicator LEDs, and simple sensor supervision while another device handles network communication. Its four 10-bit ADC channels and 64-byte SRAM are useful for compact peripheral management, although the 1 KB Flash is not sufficient for a modern TCP/IP stack. Define a simple serial interface between the ATtiny13A and the communications module to keep firmware modular and predictable.

🛠️

Embedded Control and Hobby Projects

ATTINY13A-SF is a practical choice for learning embedded control, prototyping timers, and building compact automation experiments. The AVR instruction set and 20 MHz clock make timing examples easy to understand, while ISP allows programming and updates without removing the device. The ATtiny13A datasheet supplies the register, fuse, and peripheral information needed for repeatable experiments. Keep project code within the 1 KB Flash limit and use the four ADC channels only after checking their pin-sharing requirements.

What are the key specifications of ATTINY13A-SF that engineers should know?
The ATTINY13A-SF is an 8-bit AVR microcontroller with 20 MHz maximum clock frequency, 1 KB of ISP Flash, 64 bytes of EEPROM, 64 bytes of SRAM, and a 4-channel 10-bit ADC. According to the Microchip ATtiny13A datasheet, it operates from 1.8 V to 5.5 V and reaches up to 20 MIPS at 20 MHz. The device uses the 8-pin SOIC package and supports in-circuit serial programming.
Where can I download the ATTINY13A-SF datasheet PDF?
The official ATTINY13A-SF datasheet PDF is available from Microchip Technology at the product document URL for ATtiny13A Data Sheet DS40002307A. The document contains the pin description, electrical characteristics, memory organization, clock system, ADC information, and programming details. Use the manufacturer document for design decisions because package and suffix details must match the exact ATTINY13A-SF orderable part.
Where can I find the ATTINY13A-SF pinout?
The ATTINY13A-SF uses an 8-pin SOIC package. Its pins are PB1 on pin 1, PB0 on pin 2, GND on pin 3, VCC on pin 4, PB3/ADC3 on pin 5, PB2/ADC2 on pin 6, PB4/ADC4 on pin 7, and PB5/ADC5 on pin 8. The Microchip ATtiny13A datasheet provides the authoritative pin description and package drawing.
What is the ATTINY13A-SF operating voltage range?
The ATTINY13A-SF operates from 1.8 V to 5.5 V, according to the Microchip ATtiny13A product page and datasheet. This range allows operation from low-voltage battery systems through 3.3 V and 5 V rails. Check the selected clock frequency and peripheral operating conditions against the datasheet electrical characteristics when designing the power supply and decoupling network.
How much memory does the ATTINY13A-SF have?
The ATTINY13A-SF provides 1 KB of ISP Flash for program code, 64 bytes of EEPROM for nonvolatile data, and 64 bytes of SRAM for working data. The manufacturer also specifies a 32-byte register file. The memory size makes the device suitable for compact controllers rather than applications requiring large buffers, complex graphics, or extensive protocol stacks.
Can ATTINY13A-SF be programmed with Arduino?
The ATTINY13A-SF can be used in Arduino-style hobby projects when the programming setup supports the ATtiny13A and its 8-pin SOIC footprint. The manufacturer identifies ISP as the device programming method, and the product page describes in-circuit programming through the reset and I/O lines. Confirm the exact fuse settings, clock source, and toolchain configuration before programming a production board.
What is ATTINY13A-SF versus ATTINY85-20SF?
ATTINY13A-SF has 1 KB of Flash, 64 bytes of EEPROM, and 64 bytes of SRAM, while ATTINY85-20SF is a larger TinyAVR device with substantially more program and data memory. ATTINY13A-SF is therefore preferable for a small, low-cost controller, while ATTINY85-20SF is preferable when application code, RAM, ADC channels, or I/O capacity requires more resources. The devices are not interchangeable without a PCB and software review.
What is the best drop-in replacement for ATTINY13A-SF?
The closest documented functional replacement is the original ATtiny13, which Microchip describes as functionally identical and drop-in compatible with ATtiny13A in AVR application note AVR520. The ATtiny13A differs in some electrical characteristics and in Brown-Out Detector and Power-On Reset performance, so existing firmware and timing margins should be revalidated. Confirm package, pinout, fuse behavior, and supply conditions before production substitution.
When should I choose ATTINY13A-SF over a larger AVR microcontroller?
Choose ATTINY13A-SF when the application needs only simple digital control, modest timing requirements, and a very small memory footprint. Its 1 KB Flash and 64-byte SRAM are adequate for basic state machines, LED control, and simple sensor handling, but they are restrictive for larger protocols or buffering. Select a larger AVR when code size, RAM, peripheral count, or future expansion is expected to exceed those limits.
Is ATTINY13A-SF suitable for battery-powered projects?
Yes, ATTINY13A-SF is suitable for many battery-powered projects because it is a low-power CMOS TinyAVR device with a 1.8 V to 5.5 V operating range. The actual battery life depends on the clock speed, active duty cycle, sleep settings, ADC use, pull-up resistors, and the selected regulator. Use the manufacturer power-management guidance and measure the finished design under its expected load pattern.
What can replace ATTINY13A-SF on an existing PCB?
An existing 8-pin SOIC board can potentially use the original ATtiny13 because Microchip identifies it as a functionally identical drop-in replacement for ATtiny13A. The manufacturer notes that some electrical characteristics and Brown-Out Detector or Power-On Reset behavior differ. Before replacing the device, verify pin compatibility, clock and fuse settings, reset timing, supply voltage, and application-specific behavior.
What is the best Microchip equivalent for ATTINY13A-SF?
The best same-manufacturer functional replacement identified for ATTINY13A-SF is the original ATtiny13, supported by Microchip application note AVR520 as a functionally identical drop-in replacement. It is not an identical specification match because the manufacturer notes differences in electrical characteristics and some Brown-Out Detector and Power-On Reset behavior. Validate the replacement in the target firmware and operating environment.
How many ADC channels does ATTINY13A-SF have?
The ATTINY13A-SF has four 10-bit ADC channels. The Microchip product page identifies the converter as a 4-channel 10-bit ADC, while the ATtiny13A datasheet provides the complete channel, reference, and pin-mux information. ADC accuracy depends on the selected reference, analog input arrangement, source impedance, sampling time, and the system noise environment.
Does ATTINY13A-SF support In-Circuit Serial Programming?
Yes, ATTINY13A-SF supports In-Circuit Serial Programming. Microchip identifies ISP as the device programming method and describes the MPLAB Snap connection using the reset line and device I/O pins through an 8-pin single-in-line connector. Production boards should preserve programming access and follow the manufacturer’s recommended ISP connection and fuse configuration.
Where can I request a quote and current lead time for ATTINY13A-SF?
Use the Request a Quote form on this page for current ATTINY13A-SF availability, lead time, and order handling. The product is an active Microchip ATtiny13A device in an 8-pin SOIC package, with 1 KB of Flash, 64 bytes of EEPROM, and 64 bytes of SRAM. Request a quote for the exact ATTINY13A-SF suffix and required quantity to obtain current commercial confirmation.

Impormasyon ng Talumpati sa Engineering for ATTINY13A-SF — ikabit, gabay sa disenyo, at impormasyon ng pagsunod sa kautusan.

Paunawang Hanapin

Choose ATTINY13A-SF for compact, low-cost embedded control when 1 KB of Flash, 64 bytes of SRAM, and four 10-bit ADC channels are sufficient. It is a strong fit for battery-powered sensing, LED indication, simple remote controls, and small actuator-management circuits. Select ATTINY13 only when legacy hardware or software compatibility is essential and the electrical, Brown-Out Detector, or Power-On Reset differences have been validated. Consider ATTINY13A-SNR, ATTINY13A-SH, or ATTINY13A-SU when their suffix-specific temperature or ordering requirements better match the production environment. Do not choose these options merely for lower cost if the exact suffix changes qualification requirements. For larger protocols, more RAM, additional ADC channels, or greater I/O, move to a higher-capacity TinyAVR or another microcontroller family rather than relying on a pin-compatible but functionally constrained substitution.

Ikabit sa Mga Alternatibo

Parametro Ito ang Producto ATTINY13 ATTINY13A-SNR ATTINY13A-SH ATTINY13A-SU
Package 8-SOIC 8-SOIC 8-SOIC 8-SOIC 8-SOIC
Brand Microchip Technology Microchip Technology Microchip Technology Microchip Technology Microchip Technology
Architecture 8-bit AVR enhanced RISC 8-bit AVR 8-bit AVR enhanced RISC 8-bit AVR enhanced RISC 8-bit AVR enhanced RISC
Maximum Clock Frequency 20 MHz 20 MHz 20 MHz 20 MHz 20 MHz
Flash Memory 1 KB 1 KB 1 KB 1 KB 1 KB
Programming ISP ISP ISP ISP ISP

Pangunahing mga Pagkakaiba

  • Updated AVR architecture within the same compact 8-SOIC footprint (kumpara saATTINY13)
  • Clear ATtiny13A function set for embedded control (kumpara saATTINY13A-SNR)
  • Compact ADC-enabled control in eight pins (kumpara saATTINY13A-SH)

Talaan ng Disenyo

Place the supply decoupling capacitor close to the VCC pin and keep the return path to GND short. The ATtiny13A-SF supports operation from 1.8 V to 5.5 V, but the allowed clock frequency, ADC accuracy, and output timing can depend on supply voltage. Confirm the minimum rail for the configured clock and peripheral conditions in the manufacturer electrical-characteristics table before setting the system voltage.

Preserve access to the ISP programming pins and reset function when laying out the 8-pin SOIC footprint. Keep the PCB edge, connectors, and tall components away from the programmer access area. Verify pin 1 orientation against the package drawing and verify that the 8-SOIC land pattern matches the assembled device orientation; an incorrect footprint or rotated part can prevent ISP programming.

Do not treat the 1 KB Flash and 64-byte SRAM limits as expandable. Use compact firmware, avoid large buffers, and move protocol processing to an external module when necessary. Also check ADC pin multiplexing because the analog inputs share pins with port functions. Review the fuse configuration for the intended clock source before programming, since an unintended fuse state can change timing or startup behavior.

For analog measurements, use a stable reference, route the analog input away from switching nodes, and follow the recommended input impedance and sampling arrangement in the manufacturer datasheet. Four ADC channels are available, but their shared package pins may restrict simultaneous peripheral use. Add filtering and grounding techniques suited to the sensor source rather than assuming the ADC input can directly accept high-impedance or noisy signals.

Impormasyon ng Pagsunod sa Kautusan

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Walang Lead
Unknown
Walang Halogen
Unknown
Mga Conflict Mineral
Unknown

The available manufacturer and distributor information identifies the device as an active Microchip Technology ATtiny13A microcontroller, but it does not provide explicit RoHS, REACH, lead-free, halogen-free, conflict-minerals, or AEC-Q100 status for ATTINY13A-SF.

Data napatotohanan sa: 2026-11-03 — impormasyon na pinatunayan at pinapatakbo ng pangkat ng engineering ng XAIPART's component engineering team

Kaugnay na Hanapin

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Mga kaugnay na Mga Komponente at mga Tuntunin

Microchip Technology ATTINY13A-SF ATtiny13A ATtiny13 ATTINY13A-SNR ATTINY13A-SH ATTINY13A-SU TinyAVR AVR 8-bit microcontroller RISC architecture low-power CMOS ISP Flash EEPROM SRAM 10-bit ADC 4-channel ADC 20 MHz 20 MIPS In-Circuit Serial Programming brown-out detection power-on reset watchdog timer PWM 8-pin SOIC Microchip ATtiny13A Data Sheet DS40002307A
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