Merge pull request #4198 from raspberrypi/fix_pip_urls

lurch · web-flow · commit 03d78b33b9d0 · 2025-09-29T16:36:50.000+01:00
Simplify PIP URLs
diff --git a/documentation/asciidoc/computers/compute-module/datasheet.adoc b/documentation/asciidoc/computers/compute-module/datasheet.adoc
@@ -20,7 +20,7 @@ To learn more about Compute Module 4 (CM4) and its corresponding IO Board, see t
 
 * https://datasheets.raspberrypi.com/cm4/cm4-datasheet.pdf[CM4 datasheet]
 
-[.whitepaper, title="Configure the Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003470-WP/Configuring-the-Compute-Module-4.pdf]
+[.whitepaper, title="Configure the Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003470-WP-Configuring-the-Compute-Module-4.pdf]
 ****
 The Compute Module 4 is available in a number of different hardware configurations. Some use cases disable certain features that aren't required.
 
@@ -57,7 +57,7 @@ Raspberry Pi Compute Module 1 (CM1) and Compute Module 3 (CM3) are supported pro
 * https://datasheets.raspberrypi.com/cm/cm1-schematics.pdf[Schematics for CM1]
 * https://datasheets.raspberrypi.com/cm/cm3-schematics.pdf[Schematics for CM3]
 
-[.whitepaper, title="Transition from Compute Module 1 or Compute Module 3 to Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003469-WP/Transitioning-from-CM3-to-CM4.pdf]
+[.whitepaper, title="Transition from Compute Module 1 or Compute Module 3 to Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003469-WP-Transitioning-from-CM3-to-CM4.pdf]
 ****
 This white paper helps developers migrate from Compute Module 1 or Compute Module 3 to Compute Module 4.
 ****
diff --git a/documentation/asciidoc/computers/config_txt/boot.adoc b/documentation/asciidoc/computers/config_txt/boot.adoc
@@ -287,9 +287,9 @@ Default: `1`
 
 === Secure Boot configuration properties
 
-[.whitepaper, title="How to use Raspberry Pi Secure Boot", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003466-WP/Boot-Security-Howto.pdf]
+[.whitepaper, title="How to use Raspberry Pi Secure Boot", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003466-WP-Boot-Security-Howto.pdf]
 ****
-This whitepaper describes how to implement secure boot on devices based on Raspberry Pi 4. For an overview of our approach to implementing secure boot implementation, please see the https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-004651-WP/Raspberry-Pi-4-Boot-Security.pdf[Raspberry Pi 4 Boot Security] whitepaper. The secure boot system is intended for use with `buildroot`-based OS images; using it with Raspberry Pi OS is not recommended or supported.
+This whitepaper describes how to implement secure boot on devices based on Raspberry Pi 4. For an overview of our approach to implementing secure boot implementation, please see the https://pip.raspberrypi.com/documents/RP-004651-WP-Raspberry-Pi-4-Boot-Security.pdf[Raspberry Pi 4 Boot Security] whitepaper. The secure boot system is intended for use with `buildroot`-based OS images; using it with Raspberry Pi OS is not recommended or supported.
 ****
 
 The following `config.txt` properties are used to program the `secure-boot` OTP settings. These changes are irreversible and can only be programmed via `RPIBOOT` when flashing the bootloader EEPROM image. This ensures that `secure-boot` cannot be set remotely or by accidentally inserting a stale SD card image.
diff --git a/documentation/asciidoc/computers/config_txt/overclocking.adoc b/documentation/asciidoc/computers/config_txt/overclocking.adoc
@@ -352,7 +352,7 @@ The GPU core, CPU, SDRAM and GPU each have their own PLLs and can have unrelated
 To view the Raspberry Pi's current frequency in KHz, type: `cat /sys/devices/system/cpu/cpu0/cpufreq/scaling_cur_freq`. Divide the result by 1000 to find the value in MHz. Note that this frequency is the kernel _requested_ frequency, and it is possible that any throttling (for example at high temperatures) may mean the CPU is actually running more slowly than reported. An instantaneous measurement of the actual ARM CPU frequency can be retrieved using the vcgencmd `vcgencmd measure_clock arm`. This is displayed in Hertz.
 
 === Monitoring core temperature
-[.whitepaper, title="Cooling a Raspberry Pi device", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003608-WP/Cooling-a-Raspberry-Pi-device.pdf]
+[.whitepaper, title="Cooling a Raspberry Pi device", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003608-WP-Cooling-a-Raspberry-Pi-device.pdf]
 ****
 This white paper goes through the reasons why your Raspberry Pi may get hot and why you might want to cool it back down, offering options on the cooling process.
 ****
diff --git a/documentation/asciidoc/computers/os/updating.adoc b/documentation/asciidoc/computers/os/updating.adoc
@@ -160,7 +160,7 @@ $ sudo rpi-update
 $ sudo reboot
 ----
 
-[.whitepaper, title="Updating Raspberry Pi firmware", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003476-WP/Updating-Pi-firmware.pdf]
+[.whitepaper, title="Updating Raspberry Pi firmware", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003476-WP-Updating-Pi-firmware.pdf]
 ****
 This whitepaper documents how to update the VideoCore firmware in a Raspberry Pi OS image.
 ****
diff --git a/documentation/asciidoc/computers/raspberry-pi/display-parallel-interface.adoc b/documentation/asciidoc/computers/raspberry-pi/display-parallel-interface.adoc
@@ -1,6 +1,6 @@
 == Display Parallel Interface (DPI)
 
-[.whitepaper, title="Using a DPI Display on the Raspberry Pi", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003471-WP/Using-a-DPI-display.pdf]
+[.whitepaper, title="Using a DPI Display on the Raspberry Pi", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003471-WP-Using-a-DPI-display.pdf]
 ****
 Display Parallel Interface (DPI) displays can be connected to Raspberry Pi devices via the 40-pin general-purpose input/output (GPIO) connector as an alternative to using the dedicated Display Serial Interface (DSI) or High-Definition Multimedia Interface (HDMI) ports.
 ****
diff --git a/documentation/asciidoc/computers/raspberry-pi/power-supplies.adoc b/documentation/asciidoc/computers/raspberry-pi/power-supplies.adoc
@@ -140,9 +140,9 @@ The following table describes the amount of power (in amps) drawn by different R
 
 NOTE: These measurements used a standard Raspberry Pi OS image (current as of 26 Feb 2016, or June 2019 for the Raspberry Pi 4), at room temperature, with the Raspberry Pi connected to a HDMI monitor, USB keyboard, and USB mouse. The Raspberry Pi 3 Model B was connected to a wireless LAN access point, the Raspberry Pi 4 was connected to Ethernet. All these power measurements are approximate and do not take into account power consumption from additional USB devices; power consumption can easily exceed these measurements if multiple additional USB devices or a HAT are connected to the Raspberry Pi.
 
-[.whitepaper, title="Extra PMIC features on Raspberry Pi 4 and Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-004340-WP/Extra-PMIC-features-on-Raspberry-Pi-4-and-Compute-Module-4.pdf]
+[.whitepaper, title="Extra PMIC features on Raspberry Pi 4, Raspbery Pi 5 and Compute Module 4", subtitle="", link=https://pip.raspberrypi.com/documents/RP-004340-WP-Extra-PMIC-features-on-Raspberry-Pi-4-and-Compute-Module-4.pdf]
 ****
-A number of different PMIC devices have been used on both Raspberry Pi 4 and CM4. All the PMICs provide extra functionality alongside that of voltage supply. This document describes how to access these features in software.
+A number of different PMIC devices have been used on Raspberry Pi 4, Raspberry Pi 5 and CM4. All the PMICs provide extra functionality alongside that of voltage supply. This document describes how to access these features in software.
 ****
 
 ==== Decrease Raspberry Pi 5 wattage when turned off
@@ -166,7 +166,7 @@ If you see warnings, switch to a higher quality power supply and cable. Low qual
 
 Voltages can drop for a variety of reasons. You may have plugged in too many high-demand USB devices. The power supply could be inadequate. Or the power supply cable could use wires that are too thin.
 
-[.whitepaper, title="Making a more resilient file system", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003610-WP/Making-a-more-resilient-file-system.pdf]
+[.whitepaper, title="Making a more resilient file system", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003610-WP-Making-a-more-resilient-file-system.pdf]
 ****
 Raspberry Pi devices are frequently used as data storage and monitoring devices, often in places where sudden power-downs may occur. As with any computing device, power dropouts can cause storage corruption.
 
diff --git a/documentation/asciidoc/computers/raspberry-pi/raspberry-pi-industrial.adoc b/documentation/asciidoc/computers/raspberry-pi/raspberry-pi-industrial.adoc
@@ -4,7 +4,7 @@ Raspberry Pi is often used as part of another product. This documentation descri
 
 === One-time programmable settings
 
-[.whitepaper, title="Using the one-time programmable memory on Raspberry Pi single-board computers", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-003611-WP/Using-the-One-time-programmable-memory-on-Raspberry-Pi-single-board-computers.pdf]
+[.whitepaper, title="Using the one-time programmable memory on Raspberry Pi single-board computers", subtitle="", link=https://pip.raspberrypi.com/documents/RP-003611-WP-Using-the-One-time-programmable-memory-on-Raspberry-Pi-single-board-computers.pdf]
 ****
 All Raspberry Pi single-board computers (SBCs) have an inbuilt area of one-time programmable (OTP) memory, which is actually part of the main system on a chip (SoC). As its name implies, OTP memory can be written to (i.e. a binary 0 can be changed to a 1) only once. Once a bit has been changed to 1, it can never be returned to 0. One way of looking at the OTP is to consider each bit as a fuse. Programming it involves deliberately blowing the fuse — an irreversible process, as you cannot get inside the chip to replace it!
 
diff --git a/documentation/asciidoc/microcontrollers/silicon/rp2040.adoc b/documentation/asciidoc/microcontrollers/silicon/rp2040.adoc
@@ -54,7 +54,7 @@ Key features:
 ** USB 1.1 controller and PHY, with host and device support
 ** 8 PIO state machines
 
-[.whitepaper, title="Power switching RP2040 for low standby current applications", subtitle="", link=https://pip.raspberrypi.com/categories/685-whitepapers-app-notes/documents/RP-004339-WP/Power-switching-RP2040-for-low-standby-current-applications.pdf]
+[.whitepaper, title="Power switching RP2040 for low standby current applications", subtitle="", link=https://pip.raspberrypi.com/documents/RP-004339-WP-Power-switching-RP2040-for-low-standby-current-applications.pdf]
 ****
 Even in deep sleep RP2040 draws a typical current of ~180μA, and sleep current is very dependent on PVT: process (current varies from chip to chip), voltage (current varies linearly with voltage), and temperature (current varies nonlinearly with temperature).
 
