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BeagleBone Black Rev C (4GB Flash Memory)
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The BeagleBone Black Rev C is an advanced single-board computer designed for those seeking rapid prototyping and development. This beaglebone black rev c board features a 1 GHz AM335x ARM Cortex-A8 processor, 4 GB of onboard flash memory storage, a built-in Ethernet port, HDMI output with audio support, 3D graphics acceleration, and more. This powerful beaglebone platform supports over 50 software packages, including the Debian Linux operating system as well as Android OS, enabling developers to create innovative applications faster and easier than ever before.
The preloaded Cloud9 IDE makes the process even simpler by providing web access directly from the Bones browser where you can develop your code without any additional setup or configuration required! With its low price point yet robust power under the hood it's no wonder why this popular platform has been embraced by makers all across global communities striving to make their projects come alive. Get started today using Beaglebone Black Rev C - Unleash Your Imagination.
This Beaglebone Black development board includes all the connections required for display, Ethernet networking, mouse, and keyboard. The Linux operating system is used to boot the processor, making it ideal for researchers and developers working on complex embedded systems. This beaglebone black revision c board is widely used in industrial automation, home automation, robotics, and IoT projects.
BeagleBone Black computer provides lots of expansion interfaces such as Ethernet, USB host and OTG, TF card, serial, JTAG (no connector by default), HDMI D type, Emmc, ADC, I2C, SPI, PWM, and LCD.
BeagleBone Black Rev C is designed to satisfy the different requirements of various fields including game devices, home, and industrial automation, consumer medical devices, printers, intelligent tolling systems, weighing systems of intelligent vending machines, educational terminals, and high-end toys.
To get started with the beaglebone black rev c, you will need a monitor or TV, a keyboard, bread board, jumper wires and a 5V power supply are required to get started with the Beaglebone Board. If you have these materials on hand, you are ready to begin with the beagle bone black Rev C. Simply connect your beaglebone black to the barrel jack provided on the blackboard with a 5V 3A DC power supply. Connect the Beaglebone black revision to an HDMI-compatible monitor using a micro HDMI cable. To provide input to the board, a keyboard is required.
The user does not need to install any additional operating system on the beaglebone black. Because this ARM-based development board comes with a Debian version of Linux, which includes a Linux terminal. You can use the terminal to run common Linux commands and control the Beaglebone Black rev c. Programming is required to interface it with external sensors and actuators. Normally, a GPIO module is used to program it using the Python programming language, and it includes 69 GPIO pins.
Also check our beaglebone collection page, which features a range of BeagleBone products available at Robocraze,
The beaglebone black rev c stands out in the embedded systems market due to its balance of performance, connectivity, and affordability. Compared to similar development boards, the beaglebone black price makes it an excellent value-for-money option. Whether you're working on IoT, robotics, or industrial automation, the beaglebone black revision c provides reliable performance with a strong developer ecosystem.

| PIN | PROC | NAME | MODE0 | MODE1 | MODE2 | MODE3 | MODE4 |
|---|---|---|---|---|---|---|---|
| 1,2 | GND | ||||||
| 3 | R9 | GPIO1_6 | gpmc_ad6 | mmc1_dat6 | |||
| 4 | T9 | GPIO1_7 | gpmc_ad7 | mmc1_dat7 | |||
| 5 | R8 | GPIO1_2 | gpmc_ad2 | mmc1_dat2 | |||
| 6 | T8 | GPIO1_3 | gpmc_ad3 | mmc1_dat3 | |||
| 7 | R7 | TIMER4 | gpmc_advn_ale | timer4 | |||
| 8 | T7 | TIMER7 | gpmc_oen_ren | timer7 | |||
| 9 | T6 | TIMER5 | gpmc_be0n_cle | timer5 | |||
| 10 | U6 | TIMER6 | gpmc_wen | timer6 | |||
| 11* | R12 | GPIO1_13 | gpmc_ad13 | lcd_data18 | mmc1_dat5* | mmc2_dat1 | eQEP2B_in |
| 12* | T12 | GPIO1_12 | gpmc_ad12 | lcd_data19 | mmc1_dat4* | mmc2_dat0 | eQEP2B_in |
| 13* | T10 | EHRPWM2B | gpmc_ad9 | lcd_data22 | mmc1_dat1* | mmc2_dat5 | eQEP2B_in |
| 14* | T11 | GPIO1_26 | gpmc_ad10 | lcd_data21 | mmc1_dat2* | mmc2_dat6 | ehrpwm_tripzone |
| 15* | U13 | GPIO1_15 | gpmc_ad15 | lcd_data16 | mmc1_dat7* | mmc2_dat3 | eQEP2_strobe |
| 16* | V13 | GPIO1_14 | gpmc_ad14 | lcd_data17 | mmc1_dat6* | mmc2_dat2 | eQEP2_index |
| 17* | U12 | GPIO1_27 | gpmc_ad11 | lcd_data20 | mmc1_dat3* | mmc2_dat7 | ehrpwm0_synco |
| 18* | V12 | GPIO2_1 | gpmc_clk_mux0 | lcd_memory_clk | gpmc_wait1 | mmc2_clk | |
| 19* | U10 | gpmc_ad8 | gpmc_ad8 | lcd_data23 | mmc1_dat0* | mmc2_dat4 | ehrpwm2A |
| 20* | V9 | GPIO1_31 | gpmc_csn2 | gpmc_be1n | mmc1_cmd* | ||
| 21* | U9 | GPIO1_30 | gpmc_csn1 | gpmc_clk | mmc1_clk* | ||
| *Some pins are used by internal storage eMMC (11–21) and HDMI (27–46) | |||||||
| PIN | PROC | NAME | MODE0 | MODE2 | MODE3 | MODE4 |
|---|---|---|---|---|---|---|
| 1,2 | GND | |||||
| 3,4 | DC_3.3V | |||||
| 5,6 | VDD_5V | |||||
| 7,8 | SYS_5V | |||||
| 9 | PWR_BUT | |||||
| 10 | A10 | RESET_OUT | ||||
| 11 | T17 | gpmc_wait0 | mii2_crs | gpmc_csn4 | rmii2_crs_dv | mmc1_sdcd |
| 12 | U18 | gpmc_be1n | mii2_col | gpmc_csn6 | mmc_dat3 | gpmc_dir |
| 13 | U17 | gpmc_wpn | mii2_rxerr | gpmc_csn5 | rmii2_rxerr | mmc2_sdcd |
| 14 | U14 | gpmc_a2 | mii2_txd3 | rgmii2_td3 | mmc2_dat1 | gpmc_a18 |
| 15 | R13 | gpmc_a0 | gmii2_txen | rmii2_tctl | mii2_txen | gpmc_a16 |
| 16 | T14 | gpmc_a3 | mii2_txd2 | rgmii2_td2 | mmc2_dat2 | gpmc_a19 |
| 17 | A16 | spi0_cs0 | mmc2_sdwp | I2C1_SCL | ehrpwm0_synci | |
| 18 | B16 | spi0_d1 | mmc1_sdwp | I2CL_SDA | ehrpwm0_tripzone | |
| 19 | D17 | uart1_ctsn | timer5 | dcan0_rx | I2C2_SCL | spi1_cs1 |
| 20 | D18 | uart1_ctsn | timer6 | dcan0_tx | I2C2_SDA | spi1_cs0 |
| 21 | B17 | spi0_d0 | uart2_txd | I2C2_SCL | ehrpwm0B | |
| 22 | A17 | spi0_sclk | uart2_txd | I2C2_SDA | ehrpwm0A | |
| 23 | V14 | gpmc_a1 | gmii2_rxdv | rgmii2_rxdv | mmc2_dat0 | gpmc_a17 |
| 24 | D15 | uart1_txd | mmc2_swdp | dcan1_rx | I2C1_SCL | |
| 25 | A14 | mcasp0_ahclkx | eQEP0_strobe | mcasp0_axr3 | mcasp1_axr1 | EMU4_mux2 |
| 26 | D16 | uart1_rxd | mmc1_sdwp | mcasp0_axr2 | I2C1_SDA |
| Feature |
![]() BeagleBone Black Rev C |
![]() Raspberry Pi 4 Model B |
|---|---|---|
| Processor (CPU) | TI AM3359, 1?GHz ARM Cortex?A8 | Broadcom BCM2711, Quad?core ARM Cortex?A72 @ 1.5?GHz |
| RAM | 512?MB DDR3 | 1/2/4/8 GB LPDDR4 |
| Onboard Storage | 4?GB eMMC Flash | microSD Card (No onboard flash) |
| USB Ports | 1× USB Host, 1× USB OTG | 2× USB 3.0, 2× USB 2.0 |
| Ethernet | 10/100 Mbps | Gigabit Ethernet |
| Video Output | micro-HDMI (HD), 3D Graphics | 2× micro-HDMI (up to 4Kp60) |
| Wireless/Bluetooth | Not Available | Wi?Fi (Dual-band), Bluetooth 5.0 |
| GPIO/Expansion | 2× 46 pin headers, 69 GPIO, PRUs | 40 pin GPIO, HAT compatible |
| Power Input | 5V via micro-USB or DC jack | 5V @ 3A via USB-C |
| Dimensions | 86.3 × 54.61 mm | 85 × 56 mm |
| Graphics/Multimedia | 3D Accelerator, HDMI Audio/Video | VideoCore VI, H.265 4Kp60 Decode |
| Unique Features | Real-time PRUs, Onboard eMMC, Cape Support | Dual 4K output, USB 3.0, Wireless |
| Brand | Beaglebone |
| Memory | 4GB Flash Memory |
| Model | BeagleBone Rev C |
| Power Supply | 5V/0.35A |
| Processor | AM3359 Processor |
| Dimensions | 86.36 mm×54.61mm |
| Weight | 120 grams |
To get started, simply connect your BeagleBone Black to a computer using a USB cable. This will power it on and allow you to access the board's web-based interface by navigating to http://192.168.7.2 in your browser. Your computer may prompt you to install drivers to properly recognize the single board computer, after which you can begin coding right away.
First, download a compatible Linux image, such as Debian, from the official BeagleBoard website. Next, use a tool like balenaEtcher to flash the image file onto a microSD card. Insert the card into your board and power it on. The board will boot from the microSD card, transforming it into a versatile SBC computer running a full Linux operating system.
You can connect sensors and other electronic components to the GPIO (General Purpose Input/Output) pins on your BeagleBone Black development board. Refer to the board's pinout diagram to correctly wire the sensor's power, ground, and data pins. For programming, you can use helpful Python libraries like Adafruit_BBIO to easily read data from your connected sensors.
You can program your BeagleBone Black using popular languages like Python, C/C++, and JavaScript through Node.js. After connecting to the board via SSH or the onboard Cloud9 IDE, you can write and execute scripts. Libraries such as Adafruit_BBIO simplify controlling GPIO pins, making it easy to build interactive hardware projects with this flexible SBC board.
While the board includes 4GB of onboard eMMC flash memory, you can easily expand its storage capacity using a microSD card. You can either flash a new operating system onto the card to boot from it or mount it as additional storage for your files and applications. This allows your single board computer to handle larger projects and data sets with ease.
If you encounter issues like your board not booting, first ensure you are using a reliable 5V power supply. For connectivity problems, verify that the necessary drivers are installed on your computer. If issues persist, try reflashing the latest official operating system image to either the onboard memory or a microSD card to restore your BeagleBone board to a clean state.
To enable Wi-Fi, plug a compatible USB Wi-Fi adapter into the board's USB port. From the Linux terminal, you can then use command-line tools like nmcli to scan for available networks and connect to your desired SSID. Once connected, your single board computer will have internet access for software updates, remote access, and cloud-based projects.
The BeagleBone Black Rev C is used for embedded systems development, IoT projects, robotics, industrial automation, and educational purposes. Its powerful processor and extensive GPIO support make it suitable for both prototyping and production-level applications.
The beaglebone black rev c includes a 1GHz ARM Cortex-A8 processor, 512MB DDR3 RAM, 4GB eMMC storage, HDMI output, Ethernet connectivity, and around 69 GPIO pins, along with multiple communication interfaces like I2C, SPI, and UART.
The beaglebone is often preferred for embedded and real-time applications due to its PRU (Programmable Real-time Unit) subsystem and higher number of GPIO pins, while Raspberry Pi is more suited for general-purpose computing and multimedia tasks.
Yes, the beaglebone black revision c comes with Debian Linux pre-installed on its onboard eMMC storage, allowing users to start development immediately without installing an OS.
The BeagleBone Black Rev C offers approximately 69 GPIO pins, enabling extensive hardware interfacing for sensors, actuators, and other peripherals.
This product comes with a 1-year manufacturer warranty from the date of purchase, covering manufacturing defects only.
The product shows signs of physical damage, mishandling, exposure to water/moisture, fire, natural calamities, unauthorized repairs, improper storage near heat or direct sunlight, or alteration in any way.