PC USB Logic Analyzers with Arduino, Raspberry Pi, and Co.
Step-by-step instructions guide you through the analysis of modern protocols such as I²C, SPI, UART, RS-232, NeoPixel, WS28xx, HD44780 and 1-Wire protocols. With the help of numerous experimental circuits based on the Raspberry Pi Pico, Arduino Uno and the Bus Pirate, you will learn the practical application of popular USB logic analyzers.
All the experimental circuits presented in this book have been fully tested and are fully functional. The necessary program listings are included – no special programming or electronics knowledge is required for these circuits. The programming languages used are MicroPython and C along with the development environments Thonny and Arduino IDE.
This book uses several models of flexible and widely available USB logic analyzers and shows the strengths and weaknesses of each price range.
You will learn about the criteria that matter for your work and be able to find the right device for you.
Whether Arduino, Raspberry Pi or Raspberry Pi Pico, the example circuits shown allow you to get started quickly with protocol analysis and can also serve as a basis for your own experiments.
After reading this book, you will be familiar with all the important terms and contexts, conduct your own experiments, analyze protocols independently, culminating in a comprehensive knowledge set of digital signals and protocols.
PC USB Logic Analyzers with Arduino, Raspberry Pi, and Co.
Step-by-step instructions guide you through the analysis of modern protocols such as I²C, SPI, UART, RS-232, NeoPixel, WS28xx, HD44780 and 1-Wire protocols. With the help of numerous experimental circuits based on the Raspberry Pi Pico, Arduino Uno and the Bus Pirate, you will learn the practical application of popular USB logic analyzers.
All the experimental circuits presented in this book have been fully tested and are fully functional. The necessary program listings are included – no special programming or electronics knowledge is required for these circuits. The programming languages used are MicroPython and C along with the development environments Thonny and Arduino IDE.
This book uses several models of flexible and widely available USB logic analyzers and shows the strengths and weaknesses of each price range.
You will learn about the criteria that matter for your work and be able to find the right device for you.
Whether Arduino, Raspberry Pi or Raspberry Pi Pico, the example circuits shown allow you to get started quickly with protocol analysis and can also serve as a basis for your own experiments.
After reading this book, you will be familiar with all the important terms and contexts, conduct your own experiments, analyze protocols independently, culminating in a comprehensive knowledge set of digital signals and protocols.
USB Logic Analyzer (8-ch, 24 MHz)
This USB Logic Analyzer is an 8-channel logic analyzer with each input dual purposed for analog data recording. It is perfect for debugging and analyzing signals like I²C, UART, SPI, CAN and 1-Wire. It operates by sampling a digital input connected to a device under test (DUT) at a high sample rate. The connection to the PC is via USB.
Specifications
Channels
8 digital channels
Maximum sampling rate
24 MHz
Maximum input voltage
0 V ~ 5 V
Operating temperature
0°C ~ 70°C
Input impedance
1 MΩ || 10 pF
Supported protocols
I²C, SPI, UART, CAN, 1-Wire, etc.
PC connection
USB
Dimensions
55 x 28 x 14 mm
Downloads
Software
This bundle contains:
Book 'Logic Analyzers in Practice' (normal price: €35)
USB Logic Analyzer (8-ch, 24 MHz) (normal price: €15)
USB Cable
Jumper Wire Ribbon Cable
PC USB Logic Analyzers with Arduino, Raspberry Pi, and Co.
Step-by-step instructions guide you through the analysis of modern protocols such as I²C, SPI, UART, RS-232, NeoPixel, WS28xx, HD44780 and 1-Wire protocols. With the help of numerous experimental circuits based on the Raspberry Pi Pico, Arduino Uno and the Bus Pirate, you will learn the practical application of popular USB logic analyzers.
All the experimental circuits presented in this book have been fully tested and are fully functional. The necessary program listings are included – no special programming or electronics knowledge is required for these circuits. The programming languages used are MicroPython and C along with the development environments Thonny and Arduino IDE.
This book uses several models of flexible and widely available USB logic analyzers and shows the strengths and weaknesses of each price range.
You will learn about the criteria that matter for your work and be able to find the right device for you.
Whether Arduino, Raspberry Pi or Raspberry Pi Pico, the example circuits shown allow you to get started quickly with protocol analysis and can also serve as a basis for your own experiments.
After reading this book, you will be familiar with all the important terms and contexts, conduct your own experiments, analyze protocols independently, culminating in a comprehensive knowledge set of digital signals and protocols.
This USB Logic Analyzer is an 8-channel logic analyzer with each input dual purposed for analog data recording. It is perfect for debugging and analyzing signals like I²C, UART, SPI, CAN and 1-Wire. It operates by sampling a digital input connected to a device under test (DUT) at a high sample rate. The connection to the PC is via USB.
Specifications
Channels
8 digital channels
Maximum sampling rate
24 MHz
Maximum input voltage
0~5 V
Operating temperature
0~70°C
Input impedance
1 MΩ || 10 pF
Supported protocols
I²C, SPI, UART, CAN, 1-Wire, etc.
PC connection
USB
Dimensions
55 x 28 x 14 mm
Included
USB Logic Analyzer (8-ch, 24 MHz)
USB Cable
Jumper Wire Ribbon Cable
Downloads
Software
The OWON XSA815-TG (9 kHz-1.5 GHz) is a cost effective spectrum analyzer with tracking generator included and a frequency resolutions of 1 Hz.
Features
Frequency Range from 9 kHz to 1.500009 GHz
9-inch display
9 kHz to 1 MHz -95 dBm Displayed Average Noise Level, 1 MHz to 500 MHz 140 dBm (Typical), <-130 dBm
Phase Noise
-10 kHz <-80 dBc/Hz
100 kHz <-100 dBc/Hz
1 MHz <-115 dBc/Hz
Resolution Bandwidth (-3 dB): 1 Hz to 1 MHz, in 1-3-5-10 sequence
Tracking Generator Kit: 100 kHz to 1.500009 GHz
Specifications
Frequency Range
9 kHz to 500.009 MHz
Frequency Resolution
1 Hz
Frequency Span
9 kHz to 1.500009 GHz
Span Range
0 Hz, 100 Hz to max frequency of instrument
Span Uncertainty
±span / (sweep points-1)
SSB Phase Noise (20°C to 30°C, fc=1 GHz)
Carrier Offset
10 kHz <-80 dBc/Hz | 100 kHz <-100 dBc/Hz | 1 MHz <-115 dBc/Hz
Resolution Bandwidth (-3 dB)
1 Hz to 1 MHz, in 1-3-5-10 sequence
RBW Accuracy
<5% typical
Resolution Filter Shape Factor (60 dB: 3 dB)
<5 typical
Video Bandwidth (-3 dB)
10 Hz to 1 MHz, in 1-3-5-10 sequence
Amplitude measurement range
DANL to +10 dBm, 100 kHz to 10 MHz, Preamp Off
DANL to +20 dBm, 10 MHz to 1.5 GHz, Preamp Off
Reference Level
-80 dBm to +30 dBm, 0.01dB by step
Preamp
20 dB, nominal, 100 kHz to 1.5 GHz
Input Attenuator
0 to 40 dB, 1 dB by step
Display Average Noise Level Input attenuation = 0 dB, RBW = VBW = 100 Hz, sample detector, trace average ≥ 50, 20°C to 30°C, input impedance = 50 Ω)
Preamp Off 9 kHz to 1 MHz
-95 dBm (Typical), <-88 dBm
Preamp Off 1 MHz to 500 MHz
-140 dBm (Typical), <-130 dBm
Preamp On 100 kHz to 1 MHz
-135 dBm (Typical), <-128 dBm
Preamp On 1 MHz to 500 MHz
-160 dBm (Typical),<-150 dBm
Tracking Generator (optional)
Frequency Range
100 kHz to 1.500009 GHz
Output power level range
-40 dBm to 0 dBm
Output level resolution 1 dB
Output flatness
Relative to 50 MHz | ±3 dB
Tracking generator spurious
Harmonic spurious -30 dBc (Tracking generator output power -10 dBm)
Non-harmonic spurious -40 dBc (Tracking generator output power -10 dBm)
Tracking generator to input terminal isolation
-60 dB (Tracking generator output power 0 dBm)
Tracking generator to input terminal isolation
-60 dB (Tracking generator output power 0 dBm)
Tracking generator to input terminal isolation
-60 dB (Tracking generator output power 0 dBm)
Dimensions
375 x 185 x 120 mm
Weight
3.7 kg
Included
1x XSA815-TG
1x 220 V AC power cord
1x USB Cable
1x Quickstart guide
Downloads
Quick Guide
Specifications
Practical Applications and Project with Arduino, ESP32, and RP2040
Immerse yourself in the fascinating world of control engineering with Arduino and ESP32! This book offers you a practical introduction to classic and modern control methods, including PID controllers, fuzzy logic, and sliding-mode controllers.
In the first part, you will learn the basics of the popular Arduino controllers, such as the Arduino Uno and the ESP32, as well as the integration of sensors for temperature and pH measurement (NTC, PT100, PT1000, and pH sensor).
You will learn how to use these sensors in various projects and how to visualize data on a Nextion TFT display. The course continues with an introduction to actuators such as MOSFET switches, H-bridges, and solid-state relays, which are used to control motors and actuators. You will learn to analyze and model controlled systems, including PT1 and PT2 control.
The book focuses on the implementation of fuzzy and PID controllers for controlling temperature and DC motors. Both the Arduino Uno and the ESP32 are used. The sliding-mode controller is also introduced.
In the second-to-last chapter, you will explore the basics of neural networks and learn how machine learning can be used on an Arduino. In the last chapter, there is a practical example of a fuzzy controller for feeding electricity into the household grid.
This book is the perfect choice for engineers, students, and electronics engineers who want to expand their projects with innovative control techniques.
Practical Applications and Project with Arduino, ESP32, and RP2040
Immerse yourself in the fascinating world of control engineering with Arduino and ESP32! This book offers you a practical introduction to classic and modern control methods, including PID controllers, fuzzy logic, and sliding-mode controllers.
In the first part, you will learn the basics of the popular Arduino controllers, such as the Arduino Uno and the ESP32, as well as the integration of sensors for temperature and pH measurement (NTC, PT100, PT1000, and pH sensor).
You will learn how to use these sensors in various projects and how to visualize data on a Nextion TFT display. The course continues with an introduction to actuators such as MOSFET switches, H-bridges, and solid-state relays, which are used to control motors and actuators. You will learn to analyze and model controlled systems, including PT1 and PT2 control.
The book focuses on the implementation of fuzzy and PID controllers for controlling temperature and DC motors. Both the Arduino Uno and the ESP32 are used. The sliding-mode controller is also introduced.
In the second-to-last chapter, you will explore the basics of neural networks and learn how machine learning can be used on an Arduino. In the last chapter, there is a practical example of a fuzzy controller for feeding electricity into the household grid.
This book is the perfect choice for engineers, students, and electronics engineers who want to expand their projects with innovative control techniques.
The Pico-10DOF-IMU is an IMU sensor expansion module specialized for Raspberry Pi Pico. It incorporates sensors including gyroscope, accelerometer, magnetometer, baroceptor, and uses I²C bus for communication. Combined with the Raspberry Pi Pico, it can be used to collect environment sensing data like temperature and barometric pressure, or to easily DIY a robot that detects motion gesture and orientation. Features Standard Raspberry Pi Pico header, supports Raspberry Pi Pico series Onboard ICM20948 (3-axis gyroscope, 3-axis accelerometer, and 3-axis magnetometer) for detecting motion gesture, orientation, and magnetic field Onboard LPS22HB barometric pressure sensor, for sensing the atmospheric pressure of the environment Comes with development resources and manual (Raspberry Pi Pico C/C++ and MicroPython examples) Specifications Operating voltage 5 V Accelerometer Resolution: 16-bitMeasuring range (configurable): ±2, ±4, ±8, ±16gOperating current: 68.9uA Gyroscope Resolution: 16-bitMeasuring range (configurable): ±250, ±500, ±1000, ±2000°/secOperating current: 1.23mA Magnetometer Resolution: 16-bitMeasuring range: ±4900µTOperating current: 90uA Baroceptor Measuring range: 260 ~ 1260hPaMeasuring accuracy (ordinary temperature): ±0.025hPaMeasuring speed: 1Hz - 75Hz
For Speed, Area, Power, and Reliability
This book teaches the fundamentals of FPGA operation, covering basic CMOS transistor theory to designing digital FPGA chips using LUTs, flip-flops, and embedded memories. Ideal for electrical engineers aiming to design large digital chips using FPGA technology.
Discover:
The inner workings of FPGA architecture and functionality.
Hardware Description Languages (HDL) like Verilog and VHDL.
The EDA tool flow for converting HDL source into a functional FPGA chip design.
Insider tips for reliable, low power, and high performance FPGA designs.
Example designs include:
Computer-to-FPGA UART serial communication.
An open-source Sump3 logic analyzer implementation.
A fully functional graphics controller.
What you need:
Digilent BASYS3 or similar FPGA eval board with an AMD/Xilinx FPGA.
Vivado EDA tool suite (available for download from AMD website free of charge).
Project source files available from author’s GitHub site.
