This book is about the Raspberry Pi 3 computer and its use in various control and monitoring applications. The book explains in simple terms and with tested and working example projects, how to configure the Raspberry Pi 3 computer, how to install and use the Linux operating system, and how to write hardware based applications programs using the Python programming language.
The nice feature of this book is that it covers many Raspberry Pi 3 based hardware projects using the latest hardware modules such as the Sense HAT, Swiss Pi, MotoPi, Camera module, and many other state of the art analog and digital sensors. An important feature of the Raspberry Pi 3 is that it contains on-board Bluetooth and Wi-Fi modules. Example projects are given in the book on using the Wi-Fi and the Bluetooth modules to show how real-data can be sent to the Cloud using the Wi-Fi module, and also how to communicate with an Android based mobile phone using the Bluetooth module.
The book is ideal for self-study, and is intended for electronic/electrical engineering students, practising engineers, research students, and for hobbyists. It is recommended that the book should be followed in the given Chapter order.
Over 30 projects are given in the book. All the projects in the book are based on the Python programming language and they have been fully tested. Full program listings of every project are given in the book with comments and full descriptions. Experienced programmers should find it easy to modify and update the programs to suit their needs.
The following sub-headings are given for each project to make it as easy as possible for the readers to follow the projects:
Project title
Description
Aim of the project
Raspberry Pi type
Block diagram
Circuit diagram
Program listing
Designed for overclockers and other power users, this fan keeps your Raspberry Pi 4 at a comfortable operating temperature even under heavy load. The temperature-controlled fan delivers up to 1.4 CFM of airflow over the processor, memory, and power management IC. The bundled heatsink (18 x 8 x 10 mm) with self-adhesive pad improves heat transfer from the processor. The Raspberry Pi 4 Case Fan works with Raspberry Pi 4 and the official Raspberry Pi 4 case.
Cool Projects for Test, Measurement, and Control
The Raspberry Pi has dominated the maker scene for many years. Freely accessible I/O pins have made it one of the most popular processor boards of all time. However, the classic Raspberry Pi has no analog inputs. Direct measurement of analog values is therefore not possible. Consequently, photodiodes, NTCs, Hall sensors, etc. cannot be read directly. In addition, the pins are connected directly to the exposed contacts, i.e. without a driver or protection circuit. This can quickly destroy the central controller and thus the entire Raspberry Pi.
These problems can be elegantly solved with the Pico. As a front-end, it can easily handle a wide range of measurement tasks. In addition, the Pico is much cheaper than a classic Raspberry Pi 4 or 5. If a faulty circuit leads to the destruction of the Pico, this is relatively easy to handle. This makes the combination of a classic Raspberry Pi 4 or 5 and the Pico an ideal pair.
The book introduces the broad and highly topical field of modern controller technology using the combined force of a Raspberry Pi 4 or 5 and a Raspberry Pi Pico. In addition to a detailed introduction to the operation and functionality of the controller boards themselves, the book also focuses on data acquisition and processing with digital processors. Especially the combination of both systems offers a wide range of interesting possibilities.
Some practical projects from the contents:
USB between Raspberry Pi 4 or 5 and Pico
I²C Communication and Pico as an I²C device
Voltmeter and Computer Thermometer
Pico W as a Web Server and WLAN Scanner
Frequency Meters and Generators
OLED Displays on Raspberry Pi 4 or 5 and Pico
Energy Saving Monitor
Which Astronauts are in Orbit?
Mini Monitor for Current Bitcoin Exchange Rate
Program, build, and master over 60 projects with Python
The Raspberry Pi 5 is the latest single-board computer from the Raspberry Pi Foundation. It can be used in many applications, such as in audio and video media centers, as a desktop computer, in industrial controllers, robotics, and in many domestic and commercial applications. In addition to the well-established features found in other Raspberry Pi computers, the Raspberry Pi 5 offers Wi-Fi and Bluetooth (classic and BLE), which makes it a perfect match for IoT as well as in remote and Internet-based control and monitoring applications. It is now possible to develop many real-time projects such as audio digital signal processing, real-time digital filtering, real-time digital control and monitoring, and many other real-time operations using this tiny powerhouse.
The book starts with an introduction to the Raspberry Pi 5 computer and covers the important topics of accessing the computer locally and remotely. Use of the console language commands as well as accessing and using the desktop GUI are described with working examples. The remaining parts of the book cover many Raspberry Pi 5-based hardware projects using components and devices such as
LEDs and buzzers
LCDs
Ultrasonic sensors
Temperature and atmospheric pressure sensors
The Sense HAT
Camera modules
Example projects are given using Wi-Fi and Bluetooth modules to send and receive data from smartphones and PCs, and sending real-time temperature and atmospheric pressure data to the cloud.
All projects given in the book have been fully tested for correct operation. Only basic programming and electronics experience are required to follow the projects. Brief descriptions, block diagrams, detailed circuit diagrams, and full Python program listings are given for all projects described.
Program, build, and master over 60 projects with Python
The Raspberry Pi 5 is the latest single-board computer from the Raspberry Pi Foundation. It can be used in many applications, such as in audio and video media centers, as a desktop computer, in industrial controllers, robotics, and in many domestic and commercial applications. In addition to the well-established features found in other Raspberry Pi computers, the Raspberry Pi 5 offers Wi-Fi and Bluetooth (classic and BLE), which makes it a perfect match for IoT as well as in remote and Internet-based control and monitoring applications. It is now possible to develop many real-time projects such as audio digital signal processing, real-time digital filtering, real-time digital control and monitoring, and many other real-time operations using this tiny powerhouse.
The book starts with an introduction to the Raspberry Pi 5 computer and covers the important topics of accessing the computer locally and remotely. Use of the console language commands as well as accessing and using the desktop GUI are described with working examples. The remaining parts of the book cover many Raspberry Pi 5-based hardware projects using components and devices such as
LEDs and buzzers
LCDs
Ultrasonic sensors
Temperature and atmospheric pressure sensors
The Sense HAT
Camera modules
Example projects are given using Wi-Fi and Bluetooth modules to send and receive data from smartphones and PCs, and sending real-time temperature and atmospheric pressure data to the cloud.
All projects given in the book have been fully tested for correct operation. Only basic programming and electronics experience are required to follow the projects. Brief descriptions, block diagrams, detailed circuit diagrams, and full Python program listings are given for all projects described.
Program and Build Raspberry Pi 5 Based Ham Station Utilities with the RTL-SDR
The RTL-SDR devices (V3 and V4) have gained popularity among radio amateurs because of their very low cost and rich features. A basic system may consist of a USB based RTL-SDR device (dongle) with a suitable antenna, a Raspberry Pi 5 computer, a USB based external audio input-output adapter, and software installed on the Raspberry Pi 5 computer. With such a modest setup, it is possible to receive signals from around 24 MHz to over 1.7 GHz.
This book is aimed at amateur radio enthusiasts and electronic engineering students, as well as at anyone interested in learning to use the Raspberry Pi 5 to build electronic projects. The book is suitable for both beginners through experienced readers. Some knowledge of the Python programming language is required to understand and eventually modify the projects given in the book. A block diagram, a circuit diagram, and a complete Python program listing is given for each project, alongside a comprehensive description.
The following popular RTL-SDR programs are discussed in detail, aided by step-by-step installation guides for practical use on a Raspberry Pi 5:
SimpleFM
GQRX
SDR++
CubicSDR
RTL-SDR Server
Dump1090
FLDIGI
Quick
RTL_433
aldo
xcwcp
GPredict
TWCLOCK
CQRLOG
klog
Morse2Ascii
PyQSO
Welle.io
Ham Clock
CHIRP
xastir
qsstv
flrig
XyGrib
FreeDV
Qtel (EchoLink)
XDX (DX-Cluster)
WSJT-X
The application of the Python programming language on the latest Raspberry Pi 5 platform precludes the use of the programs in the book from working on older versions of Raspberry Pi computers.
Program and Build Raspberry Pi 5 Based Ham Station Utilities with the RTL-SDR
The RTL-SDR devices (V3 and V4) have gained popularity among radio amateurs because of their very low cost and rich features. A basic system may consist of a USB based RTL-SDR device (dongle) with a suitable antenna, a Raspberry Pi 5 computer, a USB based external audio input-output adapter, and software installed on the Raspberry Pi 5 computer. With such a modest setup, it is possible to receive signals from around 24 MHz to over 1.7 GHz.
This book is aimed at amateur radio enthusiasts and electronic engineering students, as well as at anyone interested in learning to use the Raspberry Pi 5 to build electronic projects. The book is suitable for both beginners through experienced readers. Some knowledge of the Python programming language is required to understand and eventually modify the projects given in the book. A block diagram, a circuit diagram, and a complete Python program listing is given for each project, alongside a comprehensive description.
The following popular RTL-SDR programs are discussed in detail, aided by step-by-step installation guides for practical use on a Raspberry Pi 5:
SimpleFM
GQRX
SDR++
CubicSDR
RTL-SDR Server
Dump1090
FLDIGI
Quick
RTL_433
aldo
xcwcp
GPredict
TWCLOCK
CQRLOG
klog
Morse2Ascii
PyQSO
Welle.io
Ham Clock
CHIRP
xastir
qsstv
flrig
XyGrib
FreeDV
Qtel (EchoLink)
XDX (DX-Cluster)
WSJT-X
The application of the Python programming language on the latest Raspberry Pi 5 platform precludes the use of the programs in the book from working on older versions of Raspberry Pi computers.
The Raspberry Pi M.2 HAT+ enables you to connect M.2 peripherals such as NVMe drives and AI accelerators to Raspberry Pi 5’s PCIe 2.0 interface, supporting fast (up to 500 MB/s) data transfer to and from NVMe drives and other PCIe accessories.
Raspberry Pi M.2 HAT+ supports devices that have the M.2 M key edge connector, in the 2230 and 2242 form factors. It is capable of supplying up to 3 A to connected M.2 devices.
Features
Supports single-lane PCIe 2.0 interface (500 MB/s peak transfer rate)
Supports devices that use the M.2 M key edge connector
Supports devices with the 2230 or 2242 form factor
Capable of supplying up to 3 A to connected M.2 devices
Power and activity LEDs
Included
1x Raspberry Pi 5 M.2 HAT+
1x Ribbon cable
1x GPIO stacking header
4x Spacers
8x Screws
Downloads
Datasheet
Schematics
Assembly instructions
The Raspberry Pi 500 (based on the Raspberry Pi 5) features a quad-core 64-bit Arm processor, RP1 I/O controller, 8 GB RAM, wireless networking, dual-display output, 4K video playback, and a 40-pin GPIO header. It's a powerful, compact all-in-one computer built into a portable keyboard.
The built-in aluminum heatsink provides improved thermal performance, allowing the Raspberry Pi 500 to run quickly and smoothly even under heavy load.
Specifications
SoC
Broadcom BCM2712
CPU
ARM Cortex-A76 (ARM v8) 64-bit
Clock rate
4x 2.4 GHz
GPU
VideoCore VII (800 MHz)
RAM
8 GB LPDDR4X (4267 MHz)
WiFi
IEEE 802.11b/g/n/ac (2.4 GHz/5 GHz)
Bluetooth
Bluetooth 5.0, BLE
Ethernet
Gigabit Ethernet (with PoE+ support)
USB
2x USB-A 3.0 (5 GBit/s)1x USB-A 2.01x USB-C (for power supply)
PCI Express
1x PCIe 2.0
GPIO
Standard 40-pin GPIO header
Video
2x micro-HDMI ports (4K60)
Multimedia
H.265 (4K60 decode)OpenGL ES 3.1, Vulkan 1.2
SD card
microSD
Power supply
5 V DC (via USB-C)
Keyboard layout
US (QWERTY)
Dimensions
286 x 122 x 23 mm
Downloads
Datasheet
SD card quality is crucial for a good Raspberry Pi experience. Raspberry Pi's A2 microSD cards support higher bus speeds and command queuing, improving random read performance and narrowing the gap with NVMe SSDs. These cards are rigorously tested for optimal performance with Raspberry Pi models.
Features
Capacity: 32 GB
Support for DDR50 and SDR104 bus speeds and command queueing (CQ) extension
Speed Class: C10, U3, V30, A2
Random 4 KB read performance: 3,200 IOPS (Raspberry Pi 4, DDR50) 5,000 IOPS (Raspberry Pi 5, SDR104)
Random 4 K write performance: 1,200 IOPS (Raspberry Pi 4, DDR50) 2,000 IOPS (Raspberry Pi 5, SDR104)
Shock-proof, X-ray–proof, and magnet-proof
microSDHC/microSDXC formats
Downloads
Datasheets
SD card quality is crucial for a good Raspberry Pi experience. Raspberry Pi's A2 microSD cards support higher bus speeds and command queuing, improving random read performance and narrowing the gap with NVMe SSDs. These cards are rigorously tested for optimal performance with Raspberry Pi models.
Features
Capacity: 64 GB
Support for DDR50 and SDR104 bus speeds and command queueing (CQ) extension
Speed Class: C10, U3, V30, A2
Random 4 KB read performance: 3,200 IOPS (Raspberry Pi 4, DDR50) 5,000 IOPS (Raspberry Pi 5, SDR104)
Random 4 K write performance: 1,200 IOPS (Raspberry Pi 4, DDR50) 2,000 IOPS (Raspberry Pi 5, SDR104)
Shock-proof, X-ray–proof, and magnet-proof
microSDHC/microSDXC formats
Downloads
Datasheets
This book is about advanced programming of the Raspberry Pi computer using the Python programming language. The book explains in simple terms and with examples:
How to configure the Raspberry Pi computer;
How to install and use the Linux operating system and the desktop;
How to write advanced programs using the Python programming language;
How to use graphics in our programs;
How to develop hardware based projects using the Raspberry Pi.
The book starts with an introduction to the Raspberry Pi computer and covers the topics of purchasing all the necessary accessories and installing and operating the Linux operating system in command mode. The network interface of the RPi is explained in simple steps, demonstrating how the computer can be accessed remotely from a desktop or a laptop computer.
The remaining parts of the book cover the Python programming language in detail, including advanced topics such as operating system calls, multitasking, interprocess synchronization and interprocess communication techniques. The important topic of network programming using UDP and TCP protocols is described with working examples. The Tkinter graphical user interface module (GUI) is described in detail with example widgets and programs.
The last part of the book includes hardware projects based on using the advanced programming topics such as multitasking and interprocess communication techniques. All the projects given in the book have been fully tested and are working. Complete program listings of all projects are provided with detailed explanations.
The Raspberry Pi AI HAT+ is an expansion board designed for the Raspberry Pi 5, featuring an integrated Hailo AI accelerator. This add-on offers a cost-effective, efficient, and accessible approach to incorporating high-performance AI capabilities, with applications spanning process control, security, home automation, and robotics.
Available in models offering 13 or 26 tera-operations per second (TOPS), the AI HAT+ is based on the Hailo-8L and Hailo-8 neural network accelerators. This 13 TOPS model efficiently supports neural networks for tasks like object detection, semantic and instance segmentation, pose estimation, and more. The 26 TOPS variant accommodates larger networks, enables faster processing, and is optimized for running multiple networks simultaneously.
The AI HAT+ connects via the Raspberry Pi 5’s PCIe Gen3 interface. When the Raspberry Pi 5 is running a current version of the Raspberry Pi OS, it automatically detects the onboard Hailo accelerator, making the neural processing unit (NPU) available for AI tasks. Additionally, the rpicam-apps camera applications included in Raspberry Pi OS seamlessly support the AI module, automatically using the NPU for compatible post-processing functions.
Included
Raspberry Pi AI HAT+ (13 TOPS)
Mounting hardware kit (spacers, screws)
16 mm GPIO stacking header
Downloads
Datasheet
Build robust, intelligent machines that combine Raspberry Pi computing power with LEGO components.
The Raspberry Pi Build HAT provides four connectors for LEGO Technic motors and sensors from the SPIKE Portfolio. The available sensors include a distance sensor, a color sensor, and a versatile force sensor. The angular motors come in a range of sizes and include integrated encoders that can be queried to find their position.
The Build HAT fits all Raspberry Pi computers with a 40-pin GPIO header, including – with the addition of a ribbon cable or other extension device — Raspberry Pi 400. Connected LEGO Technic devices can easily be controlled in Python, alongside standard Raspberry Pi accessories such as a camera module.
Features
Controls up to 4 motors and sensors
Powers the Raspberry Pi (when used with a suitable external PSU)
Easy to use from Python on the Raspberry Pi
This bundle includes the Raspberry Pi Zero W and the Elektor Raspberry Pi Buffer Board.
Raspberry Pi Zero W
The Raspberry Pi Zero W is the newest member of the Raspberry Pi Zero family. The Raspberry Pi Zero W has all the functionality of the original Raspberry Pi Zero, but comes with added connectivity consisting of:
802.11 b/g/n WLAN
Bluetooth 4.1
Bluetooth Low Energy (BLE)
Other features
1 GHz, single-core CPU
512 MB RAM
Mini HDMI and USB On-The-Go ports
Micro-USB power supply
HAT-compatible 40-pin header
Composite video and reset headers
CSI camera connector
Downloads
Mechanische tekening
Schema's
Elektor Raspberry Pi Buffer Board
When you experiment with the Raspberry Pi on a regular basis and you connect a variety of external hardware to the GPIO port via the header you may well have caused some damage in the past. The Raspberry Pi Buffer Board is there to prevent this! The board is compatible with Raspberry Pi Zero, 3, 4, 5 and 400.
All 26 GPIOs are buffered with bi-directional voltage translators to protect the Raspberry Pi when experimenting with new circuits. The PCB is intended to be inserted in the back of Raspberry Pi< 400. The connector to connect to the Raspberry Pi is a right angled 40-way receptacle (2x20). The PCB is only a fraction wider. A 40-way flat cable with appropriate 2x20 headers can be connected to the buffer output header to experiment for instance with a circuit on a breadboard or PCB.
The circuit uses four TXS0108E ICs by Texas Instruments. The PCB can also be put upright on a Raspberry Pi 3 or newer.
Downloads
Schematics
Layout
Raspberry Pi Camera Module 3 is a compact camera from Raspberry Pi. It offers an IMX708 12-megapixel sensor with HDR, and features phase detection autofocus. Camera Module 3 is available in standard and wide-angle variants, both of which are available with or without an infrared cut filter.
Camera Module 3 can be used to take full HD video as well as stills photographs, and features an HDR mode up to 3 megapixels. Its operation is fully supported by the libcamera library, including Camera Module 3’s rapid autofocus feature: this makes it easy for beginners to use, while offering plenty for advanced users. Camera Module 3 is compatible with all Raspberry Pi computers.
All variants of Raspberry Pi Camera Module 3 feature:
Back-illuminated and stacked CMOS 12-megapixel image sensor (Sony IMX708)
High signal-to-noise ratio (SNR)
Built-in 2D Dynamic Defect Pixel Correction (DPC)
Phase Detection Autofocus (PDAF) for rapid autofocus
QBC Re-mosaic function
HDR mode (up to 3 megapixel output)
CSI-2 serial data output
2-wire serial communication (supports I²C fast mode and fast-mode plus)
2-wire serial control of focus mechanism
Specifications
Sensor
Sony IMX708
Resolution
11.9 MP
Sensor size
7.4 mm sensor diagonal
Pixel size
1.4 x 1.4 µm
Horizontal/vertical
4608 x 2592 pixels
Common video modes
1080p50, 720p100, 480p120
Output
RAW10
IR cut filter
Integrated in standard variants; not present in NoIR variants
Autofocus system
Phase Detection Autofocus
Ribbon cable length
200 mm
Cable connector
15 x 1 mm FPC
Dimensions
25 x 24 x 11.5 mm (12.4 mm height for Wide variants)
Variants of Raspberry Pi Camera Module 3
Camera Module 3
Camera Module 3 NoIR
Camera Module 3 Wide
Camera Module 3 Wide NoIR
Focus range
10 cm - ∞
10 cm - ∞
5 cm - ∞
5 cm - ∞
Focal length
4.74 mm
4.74 mm
2.75 mm
2.75 mm
Diagonal field of view
75 degrees
75 degrees
120 degrees
120 degrees
Horizontal field of view
66 degrees
66 degrees
102 degrees
102 degrees
Vertical field of view
41 degrees
41 degrees
67 degrees
67 degrees
Focal ratio (F-stop)
F1.8
F1.8
F2.2
F2.2
Infrared-sensitive
No
Yes
No
Yes
Downloads
GitHub
Documentation
Raspberry Pi Camera Module 3 is a compact camera from Raspberry Pi. It offers an IMX708 12-megapixel sensor with HDR, and features phase detection autofocus. Camera Module 3 is available in standard and wide-angle variants, both of which are available with or without an infrared cut filter.
Camera Module 3 can be used to take full HD video as well as stills photographs, and features an HDR mode up to 3 megapixels. Its operation is fully supported by the libcamera library, including Camera Module 3’s rapid autofocus feature: this makes it easy for beginners to use, while offering plenty for advanced users. Camera Module 3 is compatible with all Raspberry Pi computers.
All variants of Raspberry Pi Camera Module 3 feature:
Back-illuminated and stacked CMOS 12-megapixel image sensor (Sony IMX708)
High signal-to-noise ratio (SNR)
Built-in 2D Dynamic Defect Pixel Correction (DPC)
Phase Detection Autofocus (PDAF) for rapid autofocus
QBC Re-mosaic function
HDR mode (up to 3 megapixel output)
CSI-2 serial data output
2-wire serial communication (supports I²C fast mode and fast-mode plus)
2-wire serial control of focus mechanism
Specifications
Sensor
Sony IMX708
Resolution
11.9 MP
Sensor size
7.4 mm sensor diagonal
Pixel size
1.4 x 1.4 µm
Horizontal/vertical
4608 x 2592 pixels
Common video modes
1080p50, 720p100, 480p120
Output
RAW10
IR cut filter
Integrated in standard variants; not present in NoIR variants
Autofocus system
Phase Detection Autofocus
Ribbon cable length
200 mm
Cable connector
15 x 1 mm FPC
Dimensions
25 x 24 x 11.5 mm (12.4 mm height for Wide variants)
Variants of Raspberry Pi Camera Module 3
Camera Module 3
Camera Module 3 NoIR
Camera Module 3 Wide
Camera Module 3 Wide NoIR
Focus range
10 cm - ∞
10 cm - ∞
5 cm - ∞
5 cm - ∞
Focal length
4.74 mm
4.74 mm
2.75 mm
2.75 mm
Diagonal field of view
75 degrees
75 degrees
120 degrees
120 degrees
Horizontal field of view
66 degrees
66 degrees
102 degrees
102 degrees
Vertical field of view
41 degrees
41 degrees
67 degrees
67 degrees
Focal ratio (F-stop)
F1.8
F1.8
F2.2
F2.2
Infrared-sensitive
No
Yes
No
Yes
Downloads
GitHub
Documentation
Raspberry Pi Camera Module 3 is a compact camera from Raspberry Pi. It offers an IMX708 12-megapixel sensor with HDR, and features phase detection autofocus. Camera Module 3 is available in standard and wide-angle variants, both of which are available with or without an infrared cut filter. Camera Module 3 can be used to take full HD video as well as stills photographs, and features an HDR mode up to 3 megapixels. Its operation is fully supported by the libcamera library, including Camera Module 3’s rapid autofocus feature: this makes it easy for beginners to use, while offering plenty for advanced users. Camera Module 3 is compatible with all Raspberry Pi computers. All variants of Raspberry Pi Camera Module 3 feature: Back-illuminated and stacked CMOS 12-megapixel image sensor (Sony IMX708) High signal-to-noise ratio (SNR) Built-in 2D Dynamic Defect Pixel Correction (DPC) Phase Detection Autofocus (PDAF) for rapid autofocus QBC Re-mosaic function HDR mode (up to 3 megapixel output) CSI-2 serial data output 2-wire serial communication (supports I²C fast mode and fast-mode plus) 2-wire serial control of focus mechanism Specifications Sensor Sony IMX708 Resolution 11.9 MP Sensor size 7.4 mm sensor diagonal Pixel size 1.4 x 1.4 µm Horizontal/vertical 4608 x 2592 pixels Common video modes 1080p50, 720p100, 480p120 Output RAW10 IR cut filter Integrated in standard variants; not present in NoIR variants Autofocus system Phase Detection Autofocus Ribbon cable length 200 mm Cable connector 15 x 1 mm FPC Dimensions 25 x 24 x 11.5 mm (12.4 mm height for Wide variants) Variants of Raspberry Pi Camera Module 3 Camera Module 3 Camera Module 3 NoIR Camera Module 3 Wide Camera Module 3 Wide NoIR Focus range 10 cm - ∞ 10 cm - ∞ 5 cm - ∞ 5 cm - ∞ Focal length 4.74 mm 4.74 mm 2.75 mm 2.75 mm Diagonal field of view 75 degrees 75 degrees 120 degrees 120 degrees Horizontal field of view 66 degrees 66 degrees 102 degrees 102 degrees Vertical field of view 41 degrees 41 degrees 67 degrees 67 degrees Focal ratio (F-stop) F1.8 F1.8 F2.2 F2.2 Infrared-sensitive No Yes No Yes Downloads GitHub Documentation
Raspberry Pi Camera Module 3 is a compact camera from Raspberry Pi. It offers an IMX708 12-megapixel sensor with HDR, and features phase detection autofocus. Camera Module 3 is available in standard and wide-angle variants, both of which are available with or without an infrared cut filter.
Camera Module 3 can be used to take full HD video as well as stills photographs, and features an HDR mode up to 3 megapixels. Its operation is fully supported by the libcamera library, including Camera Module 3’s rapid autofocus feature: this makes it easy for beginners to use, while offering plenty for advanced users. Camera Module 3 is compatible with all Raspberry Pi computers.
All variants of Raspberry Pi Camera Module 3 feature:
Back-illuminated and stacked CMOS 12-megapixel image sensor (Sony IMX708)
High signal-to-noise ratio (SNR)
Built-in 2D Dynamic Defect Pixel Correction (DPC)
Phase Detection Autofocus (PDAF) for rapid autofocus
QBC Re-mosaic function
HDR mode (up to 3 megapixel output)
CSI-2 serial data output
2-wire serial communication (supports I²C fast mode and fast-mode plus)
2-wire serial control of focus mechanism
Specifications
Sensor
Sony IMX708
Resolution
11.9 MP
Sensor size
7.4 mm sensor diagonal
Pixel size
1.4 x 1.4 µm
Horizontal/vertical
4608 x 2592 pixels
Common video modes
1080p50, 720p100, 480p120
Output
RAW10
IR cut filter
Integrated in standard variants; not present in NoIR variants
Autofocus system
Phase Detection Autofocus
Ribbon cable length
200 mm
Cable connector
15 x 1 mm FPC
Dimensions
25 x 24 x 11.5 mm (12.4 mm height for Wide variants)
Variants of Raspberry Pi Camera Module 3
Camera Module 3
Camera Module 3 NoIR
Camera Module 3 Wide
Camera Module 3 Wide NoIR
Focus range
10 cm - ∞
10 cm - ∞
5 cm - ∞
5 cm - ∞
Focal length
4.74 mm
4.74 mm
2.75 mm
2.75 mm
Diagonal field of view
75 degrees
75 degrees
120 degrees
120 degrees
Horizontal field of view
66 degrees
66 degrees
102 degrees
102 degrees
Vertical field of view
41 degrees
41 degrees
67 degrees
67 degrees
Focal ratio (F-stop)
F1.8
F1.8
F2.2
F2.2
Infrared-sensitive
No
Yes
No
Yes
Downloads
GitHub
Documentation
Features Pitch spacing is 2.54 mm (1 to 36 contacts per row) with vertical orientation Number of contacts: 40 Number of rows: 2 Gender: receptacle Contact termination type: Through hole Contact Plating: Tin plated contacts High operating temperature range of -55°C to 105°C for matte tin plated contacts Contact material is phosphor bronze Black glass filled polyester insulator material Tiger Buy contact system Complies with UL E111594 and CSA 090871_0_000 standards
A comprehensive course that will teach you how to build a modern IoT application This book will take you on a whirlwind tour of full-stack web application development using Raspberry Pi. You will learn how to build an application from the ground up. You will gain experience and know-how of technologies including: The Linux operating system and command line. The Python programming language. The Raspberry Pi General Purpose Input Output pins (GPIOs). The Nginx web server. Flask Python web application microframework. JQuery and CSS for creating user interfaces. Dealing with time zones. Creating charts with Plotly and Google Charts. Data logging with Google Sheet. Developing applets with IFTTT. Securing your application with SSL. Receiving SMS notifications to your phone using Twilio. This book will also teach you how to set up a remote wireless Arduino sensor node and collect data from it. Your Raspberry Pi web application will be able to process Arduino node data in the same way it processes data from its onboard sensor. Raspberry Pi Full Stack will teach you many skills essential to building Web and Internet of Things applications. The application you will build in this project is a platform that you can extend upon. This is just the start of what you can do with a Raspberry Pi and the software and hardware components that you will learn about. This book is supported by the author via a dedicated discussion space.
The Raspberry Pi Global Shutter Camera is a specialised 1.6 MP camera from Raspberry Pi that is able to capture rapid motion without introducing artefacts typical of rolling shutter cameras. It is ideally suited to fast motion photography and to machine vision applications, where even small amounts of distortion can seriously degrade inference performance.
With a large pixel size of 3.45 x 3.45 μm providing high light sensitivity, the Global Shutter Camera can operate with short exposure times (as low as 30 μs with adequate lighting), an advantage for high-speed photography.
It features a 1.6 MP Sony IMX296 sensor, and it has the same C/CS-mount lens assembly as the Raspberry Pi High Quality Camera, for compatibility with the same broad variety of lenses. In common with other global shutter sensors, the IMX296 has a lower resolution than similarly sized rolling shutter sensors; a low pixel count is appropriate for machine vision applications, where high-resolution images are challenging to process in real time. The Global Shutter Camera's lower resolution means that with appropriate lens magnification, an image suitable for processing by a machine vision model can be captured natively.
The Raspberry Pi Global Shutter Camera is compatible with any Raspberry Pi computer that has a CSI connector.
Specifications
Form factor
38 x 38 x 19.8 mm (29.5 mm adapter and dust cap)
Weight
34 g (41 g with adapter and dust cap)
Sensor
Sony IMX296LQR-C
Resolution
1.58 MP (color)
Sensor size
6.3 mm (sensor diagonal)
Pixel size
3.45 x 3.45 μm
Output
RAW10
Back focus length of lens
Adjustable (12.5-22.4 mm)
Lens standards
CS-MountC-Mount (C-CS adapter included)
IR cut filter
Integrated
Ribbon cable length
150 mm
Included accessories
C-CS mount adapterScrewdriver
Tripod mount
1/4”-20
Included
Raspberry Pi Global Shutter Camera
C-CS mount adapter
Screwdriver
Ribbon cable (150 mm)
Downloads
Datasheet
The Raspberry Pi Pico 2 is a new microcontroller board from the Raspberry Pi Foundation, based on the RP2350. It features a higher core clock speed, double the on-chip SRAM, double the on-board flash memory, more powerful Arm cores, optional RISC-V cores, new security features, and upgraded interfacing capabilities. The Raspberry Pi Pico 2 offers a significant boost in performance and features while maintaining hardware and software compatibility with earlier members of the Raspberry Pi Pico series.
The RP2350 provides a comprehensive security architecture built around Arm TrustZone for Cortex-M. It incorporates signed boot, 8 KB of antifuse OTP for key storage, SHA-256 acceleration, a hardware TRNG, and fast glitch detectors.
The unique dual-core, dual-architecture capability of the RP2350 allows users to choose between a pair of industry-standard Arm Cortex-M33 cores and a pair of open-hardware Hazard3 RISC-V cores. Programmable in C/C++ and Python, and supported by detailed documentation, the Raspberry Pi Pico 2 is the ideal microcontroller board for both enthusiasts and professional developers.
Specifications
CPU
Dual Arm Cortex-M33 or dual RISC-V Hazard3 processors @ 150 MHz
Memory
520 KB on-chip SRAM; 4 MB on-board QSPI flash
Interfaces
26 multi-purpose GPIO pins, including 4 that can be used for AD
Peripherals
2x UART
2x SPI controllers
2x I²C controllers
24x PWM channels
1x USB 1.1 controller and PHY, with host and device support
12x PIO state machines
Input power
1.8-5.5 V DC
Dimensions
21 x 51 mm
Downloads
Datasheet (Pico 2)
Datasheet (RP2350)
The Raspberry Pi Pico 2 H (with Headers) is a new microcontroller board from the Raspberry Pi Foundation, based on the RP2350. It features a higher core clock speed, double the on-chip SRAM, double the on-board flash memory, more powerful Arm cores, optional RISC-V cores, new security features, and upgraded interfacing capabilities. The Raspberry Pi Pico 2 H offers a significant boost in performance and features while maintaining hardware and software compatibility with earlier members of the Raspberry Pi Pico series.
The RP2350 provides a comprehensive security architecture built around Arm TrustZone for Cortex-M. It incorporates signed boot, 8 KB of antifuse OTP for key storage, SHA-256 acceleration, a hardware TRNG, and fast glitch detectors.
The unique dual-core, dual-architecture capability of the RP2350 allows users to choose between a pair of industry-standard Arm Cortex-M33 cores and a pair of open-hardware Hazard3 RISC-V cores. Programmable in C/C++ and Python, and supported by detailed documentation, the Raspberry Pi Pico 2 is the ideal microcontroller board for both enthusiasts and professional developers.
Specifications
CPU
Dual Arm Cortex-M33 or dual RISC-V Hazard3 processors @ 150 MHz
Memory
520 KB on-chip SRAM; 4 MB on-board QSPI flash
Interfaces
26 multi-purpose GPIO pins, including 4 that can be used for AD
Peripherals
2x UART
2x SPI controllers
2x I²C controllers
24x PWM channels
1x USB 1.1 controller and PHY, with host and device support
12x PIO state machines
Input power
1.8-5.5 V DC
Dimensions
21 x 51 mm
Downloads
Datasheet (Pico 2)
Datasheet (RP2350)