Microcontrollers
Microcontrollers are small, computer-on-a-chip devices that can be programmed to control a variety of electronic devices. They typically include a microprocessor, memory, and input/output (I/O) peripherals on a single integrated circuit.- P-Star 45K50 Mini SV Pololu #3156 The P-Star 45K50 Mini SV is a small programmable module featuring Microchip’s PIC18F45K50 microcontroller.Delivered in 5 to 14 days€ 15,90 Incl. VAT
- Kitronik 8 Pin PIC Development Board (2 in, 3 out) Kitronik #2126 This board has been designed to complement the smaller project board.This larger development board (once built) can be used as a starting point for a project by attaching inputs and outputs to the board via the terminal blocks.Delivered in 5 to 30 days€ 7,60 Incl. VAT
- Electro-Fashion: Igloo, PICAXE wearable module Kitronik #2751 This wearable module is ideal for all of your e-textiles project needs including adding the endless possibilities of programming to your wearable projects!This PICAXE wearable module offers an easy introduction to the world of wearables.Delivered in 5 to 30 days€ 9,90 Incl. VAT
- Kitronik PICAXE Dice Kit (08M2LE), pack of 5 Kitronik #3725 This classic project uses the PIC microcontroller to create an electronic dice. Students can choose to activate the dice by a switch or light sensitive LDR. Includes PICAXE-08M2LE chip. Pack of 5.Delivered in 5 to 30 days€ 41,50 Incl. VAT
- Kitronik 8 Pin PIC Project Board (2 in, 3 out) Kitronik #2127 This board has been designed to complement the larger development board.The larger development board can be used as a starting point for a project by attaching inputs and outputs to the board via the terminal blocks.Delivered in 5 to 30 days€ 4,45 Incl. VAT
- ATmega328 with Arduino Optiboot (Uno) Sparkfun #DEV-10524 Get the power of Arduino Uno in a compact form with the ATmega328P with Arduino Optiboot (Uno). This 28-pin DIP microcontroller is perfect for custom embedded projects and features 32K of program space, 23 I/O lines, and operates at 1.8V to 5V.Delivered in 5 to 10 days€ 6,85 Incl. VAT
- PICAXE 18M2+ Microcontroller (18 pin) Sparkfun #COM-10187 Explore the world of microcontrollers with the PICAXE 18M2+ Microcontroller. With parallel tasking, touch sensors, enhanced memory, and a user-friendly programming environment, it's an ideal entry...Delivered in 5 to 10 days€ 7,25 Incl. VAT
What is an microcontroller?
Microcontrollers are small, computer-on-a-chip devices that can be programmed to control a variety of electronic devices. They typically include a microprocessor, memory, and input/output (I/O) peripherals on a single integrated circuit. They are commonly used in embedded systems, such as appliances, automobiles, and industrial control systems, where a small, low-power device is needed to perform simple control tasks.
What is the difference between AVR and PIC microcontrollers?
AVR and PIC are both types of microcontrollers, but they are developed by different companies and have some key differences.
AVR is a family of microcontrollers developed by Atmel (now owned by Microchip). AVR microcontrollers are known for their small size, low power consumption, and high performance. They use a RISC instruction set and have a variety of peripherals such as timers, ADCs and serial communication interfaces. They are widely used in hobby projects and small scale industries because of the low cost and ease of use with C language.
PIC, on the other hand, stands for Peripheral Interface Controller and is a family of microcontrollers developed by Microchip Technology. PIC microcontrollers are widely used in industrial control systems, automotive applications and household appliances because of its flexibility and power efficiency. They are typically programmed in assembly language and have a Harvard architecture.
In short, AVR is generally considered to be easier to use and better suited for hobby projects and small-scale applications, while PICs are generally more powerful and better suited for industrial and commercial applications.
How to program a microcontroller?
Programming a microcontroller typically involves the following steps:
- Connect the microcontroller to a computer: This is usually done using a programmer or a debugger, which connects to the microcontroller's debug or programming interface.
- Choose a development environment: There are many software development environments available for microcontrollers, such as Atmel Studio for AVR microcontrollers or MPLAB X for PIC microcontrollers. These environments provide a code editor, compiler, and programmer all in one.
- Write the code: Code is typically written in a low-level language, such as assembly or C. This code controls the microcontroller's I/O pins, performs calculations, and implements logic.
- Compile the code: The code is then translated into machine language that the microcontroller can understand.
- Program the microcontroller: The machine language code is then loaded onto the microcontroller using the programmer or debugger.
- Test and debug the code: Once the code is programmed, it's important to test it to make sure it's functioning correctly. This can be done by sending inputs to the microcontroller and measuring the outputs to see if they match what was expected.
- If needed, the code can be modified and reprogrammed until it functions correctly.
Note: the steps may vary depending on the microcontroller and the programming software you are using. Also there are some microcontroller that could be programmed over the air with WiFi or Bluetooth connections.
