Rêbernameya Bikarhêner a Raspberry Pi Compute Module 4
Modula Compute Raspberry Pi 4

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© 2022-2025 Raspberry Pi Ltd
This documentation is licensed under a Creative Commons Attribution-NoDerivatives 4.0 International (CC BY-ND)

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Dîroka guhertoya belgeyê

Berdan Rojek Terîf
1 Mar 2025 Initial release. This document is heavily based on the ‘Raspberry Pi Compute Module 5 forward guidance’ whitepaper.

Qada belgeyê

Ev belge ji bo hilberên Raspberry Pi yên jêrîn derbas dibe:

Pi 0 Pi 1 Pi 2 Pi 3 Pi 4 Pi 400 Pi 5 Pi 500 CM1 CM3 CM4 CM5 Pico Pico2
0 W H A B A B B Gişt Gişt Gişt Gişt Gişt Gişt Gişt Gişt Gişt Gişt

Pêşkêş

Raspberry Pi Compute Module 5 kevneşopiya Raspberry Pi didomîne, ku kompîturên herî dawî yên Raspberry Pi digire û berhemeke piçûk û wekhev a hardware-ê ji bo sepanên çespandî guncaw çêdike. Raspberry Pi Compute Module 5 xwedî heman forma kompakt e wekî Raspberry Pi Compute Module 4 lê performansek bilindtir û komek taybetmendiyên çêtirkirî peyda dike. Bê guman, di navbera Raspberry Pi Compute Module 4 û Raspberry Pi Compute Module 5 de hin cûdahî hene, û ev di vê belgeyê de têne vegotin.

Nîşe Icon NOT
For the few customers who are unable to use Raspberry Pi Compute Module 5, Raspberry Pi Compute Module 4 will stay in production until at least 2034.
The Raspberry Pi Compute Module 5 datasheet should be read in conjunction with this whitepaper.
https://datasheets.raspberrypi.com/cm5/cm5-datasheet.pdf

Taybetmendiyên sereke

Raspberry Pi Compute Module 5 has the following features:

  • Quad-core 64-bit Arm Cortex-A76 (Armv8) SoC clocked @ 2.4GHz
  • 2GB, 4GB, 8GB, or 16GB LPDDR4 SDRAM
  • On-board eMMC flash memory, OGB (Lite model), 16GB, 32GB, or 64GB options
  • 2x portên USB 3.0
  • 1 Gb Ethernet interface
  • 2x 4-lane MIPI ports supporting both DSI and CSI-2
  • 2x HDMI ports able to support 4Kp60 simultaneously
  • 28x GPIO pins
  • On-board test points to simplify production programming
  • Internal EEPROM on the bottom to improve security
  • On-board RTC (external battery via 100-pin connectors)
  • On-board fan controller
  • On-board Wi-Fi®/Bluetooth (depending on SKU)
  • 1-lane PCIe 2.0′
  • Type-C PD PSU support

Nîşe Icon NOT
Not all SDRAM/eMMC configurations are available. Please check with our sales team.
In some applications PCIe Gen 3.0 is possible, but this is not officially supported.

Lihevhatina Raspberry Pi Compute Module 4

For most customers, Raspberry Pi Compute Module 5 will be pin-compatible with Raspberry Pi Compute Module 4.
The following features have been removed/altered between the Raspberry Pi Compute Module 5 and Raspberry Pi Compute Module 4 models:

  • Vîdyoya pêkhatî
  • The composite output available on Raspberry Pi 5 is NOT routed out on Raspberry Pi Compute Module 5
  • 2-lane DSI port
  • There are two 4-lane DSI ports available on Raspberry Pi Compute Module 5, muxed with the CSI ports for a total of two
  • 2-lane CSI port
  • There are two 4-lane CSI ports available on Raspberry Pi Compute Module 5, muxed with the DSI ports for a total of two
  • 2x ADC inputs

Bîr

Raspberry Pi Compute Module 4’s maximum memory capacity is 8GB, whereas Raspberry Pi Compute Module 5 is available in a 16GB RAM variant.

Unlike Raspberry Pi Compute Module 4, Raspberry Pi Compute Module 5 is NOT available in a 1GB RAM variant.

Dengê analog

Analogue audio can be muxed onto GPIO pins 12 and 13 on Raspberry Pi Compute Module 5, in the same way as on Raspberry Pi Compute Module 4.

Use the following device tree overlay to assign analogue audio to these pins:

Kodkirin

Due to an errata on the RP1 chip, GPIO pins 18 and 19, which could be used for analogue audio on Raspberry Pi Compute Module
4, are not connected to the analogue audio hardware on Raspberry Pi Compute Module 5 and cannot be used.

Nîşe Icon NOT
The output is a bitstream rather than a genuine analogue signal. Smoothing capacitors and an ampji bo ajotina derana asta xetê, lifier li ser karta IO-yê pêwîst e.

Guhertinên li ser bootkirina USB-ê

USB booting from a flash drive is only supported via the USB 3.0 ports on pins 134/136 and 163/165
Raspberry Pi Compute Module 5 does NOT support USB host boot on the USB-C port
Unlike the BCM2711 processor, the BCM2712 does not have an XHCI controller on the USB-C interface, just a DWC2 controller on pins 103/105. Booting using 1800t is done via these pins.

Biguherîne bo moda vesazkirina modulê û girtina hêzê

1/0 pin 92 is now set to w Button rather than sus PG this means you need to use a PMIC EN to reset the module.

The PRIC ENABLE Signal resets the PMIC, and therefore the SoC. You can view PRIC EN when it’s driven low and released, which is functionally similar to driving tus Po low on Raspberry Pi Compute Module 4 and releasing it.

Raspberry Pi Compute Module 4 has the added benefit of being able to reset peripherals via the nEXTRST signal. Raspberry Pi Compute Module 5 will emulate this functionality on CAM GPIOT.

GLOBAL EN/PHIC EN are wired directly to the PMIC and bypass the OS completely. On Raspberry Pi Compute Module 5, use
GLOBAL EN/PHIC Es to execute a hard (but unsafe) shutdown

If there is a need, when using an existing 10 board, to retain the functionality of toggling I/O pin 92 to start a hard reset, you should intercept the Button at the software level; rather than having it invoke a system shutdown, it can be used to generate a software interrupt and, from there, to trigger a system reset directly (eg. write to S)

Device tree entry handling a power button (arch/arm64/boot/dts/broadcom/bcm2712-rpi-cm5.dtsi).
Kodkirin
Code 116 is the standard event code for the kernel’s KEY POWER event, and there is a handler for this in the OS.

Raspberry Pi recommends using kernel watchdogs if you are concerned about the firmware or the OS crashing and leaving the power key unresponsive. ARM watchdog support is already present in Raspberry Pi OS via the device tree, and this can be customised to individual use cases. In addition, a long press/pull on the PIR Button (7 seconds)  will cause the PMIC’s built-in handler to shut down the device.

Guhertinên pinout ên berfireh

CAM1 and DSI1 signals have become dual-purpose and can be used for either a CSI camera or a DSI display.

The pins previously used for CAMO and DSIO on Raspberry Pi Compute Module 4 now support a USB 3.0 port on Raspberry Pi Compute Module 5.

The original Raspberry Pi Compute Module 4 VBAC COMP pin is now a VBUS-enabled pin for the two USB 3.0 ports, and is active high. Raspberry Pi Compute Module 4 has extra ESD protection on the HDMI, SDA, SCL, HPD, and CEC signals. This is removed from Raspberry Pi Compute Module 5 due to space limitations. If required, ESD protection can be applied to the baseboard, although Raspberry Pi Ltd does not regard it as essential.

Derzî

CM4 CM5 Agahkişî
16 SYNC_IN Fan_tacho Fan tacho input
19 Ethernet nLED1 Fan_pwn Fan PWM output
76 Reserved VBAT RTC battery. Note: There will be a constant load of a few uA, even if CM5 is powered.
92 RUN_PG Bişkoka_PWR Replicates the power button on Raspberry Pi 5. A short press signals that the device should wake up or shut down. A long press forces shutdown.
93 nRPIBOOT nRPIBOOT If the PWR_Button is low, this pin will also be set low for a short time after power-up.
94 AnalogIP1 CC1 This pin can connect to the CC1 line of a Type-C USB connector to enable the PMIC to negotiate 5A.
96 AnalogIP0 CC2 This pin can connect to the CC2 line of a Type-C USB connector to enable the PMIC to negotiate 5A.
99 Global_EN PMIC_ENABLE No external change.
100 nEXTRST CAM_GPIO1 Pulled up on Raspberry Pi Compute Module 5, but can be forced low to emulate a reset signal.
104 Reserved PCIE_DET_nWAKE PCIE nWAKE. Pull up to CM5_3v3 with an 8.2K resistor.
106 Reserved PCIE_PWR_EN Signals whether the PCIe device can be powered up or down. Active high.
111 VDAC_COMP VBUS_EN Output to signal that USB VBUS should be enabled.
128 CAM0_D0_N USB3-0-RX_N May be P/N swapped.
130 CAM0_D0_P USB3-0-RX_P May be P/N swapped.
134 CAM0_D1_N USB3-0-DP USB 2.0 signal.
136 CAM0_D1_P USB3-0-DM USB 2.0 signal.
140 CAM0_C_N USB3-0-TX_N May be P/N swapped.
142 CAM0_C_P USB3-0-TX_P May be P/N swapped.
157 DSI0_D0_N USB3-1-RX_N May be P/N swapped.
159 DSI0_D0_P USB3-1-RX_P May be P/N swapped.
163 DSI0_D1_N USB3-1-DP USB 2.0 signal.
165 DSI0_D1_P USB3-1-DM USB 2.0 signal.
169 DSI0_C_N USB3-1-TX_N May be P/N swapped.
171 DSI0_C_P USB3-1-TX_P May be P/N swapped.

Ji bilî yên jorîn, sînyalên PCIe CLK êdî bi kapasîte ve girêdayî nînin.

PCB

Raspberry Pi Compute Module 5′s PCB is thicker than Raspberry Pi Compute Module 4′s, measuring at 1.24mm+/-10%.

Dirêjahiya rêyan

HDMI0 track lengths have changed. Each P/N pair remains matched, but the skew between pairs is now <1mm for existing motherboards. This is unlikely to make a difference, as the skew between pairs can be in the order of 25 mm.

HDMI1 track lengths have also changed. Each P/N pair remains matched, but the skew between pairs is now <5mm for existing motherboards. This is unlikely to make a difference, as the skew between pairs can be in the order of 25 mm.
Dirêjahiya rêyên Ethernetê guheriye. Her cotek P/N hevgirtî dimîne, lê ji bo motherboardên heyî, niha ji 4 mm kêmtir e. Ev ne mimkûn e ku cûdahiyek çêbike, ji ber ku ji 12 mm zêdetir e.

Connectors

Herdu pêvekên 100-pinî bi marqeyek cuda hatine guhertin. Ev bi pêvekên heyî re hevaheng in lê di herikîna bilind de hatine ceribandin. Beşa hevberdanê ya ku diçe ser motherboardê ye. Amphenol P/N 10164227-1001A1RLF

budceya hêzê

As Raspberry Pi Compute Module 5 is significantly more powerful than Raspberry Pi Compute Module 4, it will consume more electrical power. Power supply designs should budget for SV up to 2.5A. If this creates an issue with an existing motherboard design, it is possible to reduce the CPU clock rate to lower the peak power consumption.

The firmware monitors the current limit for USB, which effectively means that usb mas surrant, enable is always 1 on CM5, the 10 board design should take the total USB current required into consideration.

The firmware will report the detected power supply capabilities (if possible) via device-tree. On a running system, see /proc/device tree/chosen/poser/Eva files wekî daneyên binary ên big-endian ên 32-bit têne hilanîn.

Guhertin/pêdiviyên nermalavê

Ji aliyê nermalavê ve view, guhertinên di hardwareyê de di navbera Raspberry Pi Compute Module 4 û Raspberry Pi Compute Module 5 de ji hêla dara cîhaza nû ve ji bikarhêner têne veşartin. files, ku tê vê wateyê ku piraniya nermalava ku bi API-yên standard ên Linux-ê ve girêdayî ye dê bê guhertin bixebite. Dara cîhazê files piştrast dike ku ajokarên rast ji bo hardware di dema bootkirinê de têne barkirin.
Dara cîhazê files dikare di dara kernelê ya Raspberry Pi Linux de were dîtin. Bo nimûneample:
https://github.com/raspberrypi/linux/blob/rpi-612.y/arch/arm64/boot/dis/broadcom/bom2712-pi-om5.dtsi.

Ji bikarhênerên ku derbasî Raspberry Pi Compute Module 5 dibin tê xwestin ku guhertoyên nermalavê yên ku di tabloya jêrîn de hatine destnîşan kirin, an jî nûtir bikar bînin. Her çend hewcedariya karanîna Raspberry Pi OS-ê tune be jî, ew referansek kêrhatî ye, ji ber vê yekê di tabloyê de cih digire.

Software Awa Rojek Têbînî
Raspberry Pi OS Bookworm (12)
Firmware From 10 Mar 2025 Dîtin https://pip.raspberrypi.com/categories/685-app-notes-guides- whitepapers/documents/RP-003476-WP/Updating-Pi-firmware.pdf for details on upgrading firmware on an existing image. Note that Raspberry Pi Compute Module 5 devices come pre-programmed with appropriate firmware
Kernel 6.12.x Ji 2025 This is the kernel used in Raspberry Pi OS

Moving to standard Linux APIs/libraries from proprietary drivers/
firmware

Hemû guhertinên ku li jêr hatine rêzkirin, beşek ji veguherîna ji Raspberry Pi OS Bullseye bo Raspberry Pi OS Bookworm di Cotmeha 2023an de bûn. Her çend Raspberry Pi Compute Module 4 karibû API-yên kevintir ên kevnar bikar bîne (ji ber ku firmware-ya kevin a pêwîst hîn jî hebû), ev yek di Raspberry Pi Compute Module 5 de ne wisa ye.

Raspberry Pi Compute Module 5, mîna Raspberry Pi 5, niha li şûna pileya kevn a ku bi gelemperî wekî DispmanX tê binavkirin, xwe dispêre stûna dîmenderê ya DRM (Direct Rendering Manager), û stûna kevn a ku pir caran wekî DispmanX tê binavkirin. Li ser Raspberry Pi Compute Module 5 ji bo DispmanX piştgiriya firmware tune ye, ji ber vê yekê derbasbûna bo DRM pir girîng e.

A similar requirement applies to cameras, Raspberry Pi Compute Module 5 only supports the libcamera library’s API, so older applications that use the legacy firmware MMAL APIs, such as raspi-still and rasps-vid, no longer function.
Serlêdanên ku OpenMAX API-yê bikar tînin (kamera, kodek) êdî li ser Raspberry Pi Compute Module 5-ê naxebitin, ji ber vê yekê dê hewce bike ku ji bo karanîna V4L2-ê ji nû ve werin nivîsandin. MînakampNirxên vê yekê dikarin di depoya libcamera-apps GitHub de werin dîtin, ku li wir ji bo gihîştina hardwareya kodkera H264 tê bikar anîn.

OMXPlayer is no longer supported, as it also uses the MMAL API for video playback, you should use the VLC application. There is no command-line compatibility between these applications: see the VLC documentation for details on usage.
Raspberry Pi previously published a whitepaper that discusses these changes in more detail: https://pip.raspberrypi.com/categories/685-app-notes-guides-whitepapers/documents/RP-006519-WP/Transitioning-from-Buliseye-to-Bookworm.pdf.

Additional information

While not strictly related to the transition from Raspberry Pi Compute Module 4 to Raspberry Pi Compute Module 5, Raspberry Pi Ltd has released a new version of the Raspberry Pi Compute Module provisioning software and also has two distro generation tools that users of Raspberry Pi Compute Module 5 may find useful.

rpi-sb-provisioner is a minimal-input, automatic secure boot provisioning system for Raspberry Pi devices. It is entirely free to download and use, and can be found on our GitHub page here: https://github.com/raspberrypi/rpi-sb-provisioner.

pi-gen is the tool used to create the official Raspberry Pi OS images, but it is also available for third parties to use to create their own distributions. This is the recommended approach for Raspberry Pi Compute Module applications that require customers to build a custom Raspberry Pi OS-based operating system for their specific use case. This is also free to download and use, and can be found here: https://github.com/RPi-Distro/pi-gen. The pi-gen tool integrates well with rpi-sb-provisioner to provide an end-to-end process for generating secure boot OS images and implementing them on Raspberry Pi Compute Module 5.

rpi-image-gen is a new image creation tool (https://github.com/raspberrypi/rpi-image-gen) that may be more appropriate for more lightweight customer distributions

For bring-up and testing and where there is no requirement for the full provisioning system rpiboot is still available on Raspberry Pi Compute Module 5. Raspberry Pi Ltd recommends using a host Raspberry Pi SBC running the latest version of Raspberry Pi OS and the latest rathoot from https://github.com/raspberrypi/usbboot. You must use the ‘Mass Storage Gadget option when running rpiboot, as the previous firmware-based option is no longer supported.

Agahiyên Têkiliyê ji bo bêtir agahdarî

Ji kerema xwe têkilî
applications@iraspberrypi.com
if you have any queries about this whitepaper.
Web: www.raspberrypi.com

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Belge / Çavkanî

Modula Compute Raspberry Pi 4 [pdf] Rehbera bikaranînê
Hesabkirina Modula 4, Modula 4

Çavkanî

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