The field of digital electronics is central to modern technology. This e-book presents fundamental circuits using gates, flip-flops and counters from the CMOS 4000 Series. Each of the 50 experiments has a circuit diagram as well as a detailed illustration of the circuit’s construction on solderless breadboard.
Learning these fundamentals is best done using practical experiments. Building these digital circuits will improve your knowledge and will be fun to boot. Many of the circuits presented here have practical real-life applications. With a good overview of the field, you’ll be well equipped to find simple and cost-effective solutions for any application.
The e-book is targeted essentially at students, trainees and anyone with an interest in and requiring an introduction to digital control electronics. Moreover, the knowledge gleaned here is the foundation for further projects in the field of microcontrollers and programming.
The reComputer J1020 v2 is a compact edge AI device powered by the NVIDIA Jetson Nano 4 GB production module, delivering 0.5 TFLOPs of AI performance. It features a robust aluminum case with a passive heatsink and comes pre-installed with JetPack 4.6.1. The device includes 16 GB of onboard eMMC storage and offers 2x SCI, 4x USB 3.0, M.2 Key M, HDMI, and DP.
Applications
Computer Vision
Machine Learning
Autonomous Mobile Robot (AMR)
Specifications
Jetson Nano 4 GB System-on-Module
AI Performance
Jetson Nano 4 GB (0.5 TOPS)
GPU
NVIDIA Maxwel architecture with 128 NVIDIA CUDA cores
CPU
Quad-core ARM Cortex-A57 MPCore processor
Memory
4 GB 64-bit LPDDR4 25.6 GB/s
Video Encoder
1x 4K30 | 2x 1080p60 | 4x 1080p30 | 4x 720p60 | 9x 720p30 (H.265 & H.264)
Video Decoder
1x 4K60 | 2x 4K30 | 4x 1080p60 | 8x 1080p30 | 9x 720p60 (H.265 & H.264)
Carrier Board
Storage
1x M.2 Key M PCIe
Networking
Ethernet
1x RJ-45 Gigabit Ethernet (10/100/1000M)
I/O
USB
4x USB 3.0 Type-A1x Micro-USB port for device mode
CSI Camera
2x CSI (2-lane 15-pin)
Display
1x HDMI Type A; 1x DP
Fan
1x 4-pin Fan Connector (5 V PWM)
CAN
1x CAN
Multifunctional Port
1x 40-Pin Expansion header
1x 12-Pin Control and UART header
Power Supply
DC 12 V/2 A
Mechanical
Dimensions
130 x 120 x 50 mm (with Case)
Installation
Desktop, wall-mounting
Operating Temperature
−10°C~60°C
Included
reComputer J1020 v2 (system installed)
12 V/2 A power adapter (with 5 interchangeable adapter plugs)
Downloads
reComputer J1020 v2 datasheet
reComputer J1020 v2 3D file
Seeed NVIDIA Jetson Product Catalog
NVIDIA Jetson Device and Carrier Boards Comparison
Thanks to its six sturdy slots, Breakout Garden enables the users to simply plug and play with various tiny breakout board.
Just insert one or more boards into the slots in the Breakout Garden HAT and you’re ready to go. The mini breakouts feel secure enough in the edge-connector slots and are very unlikely to fall out.
There are a number of useful pins along the top of Breakout Garden, which lets you connect other devices and integrate them into your project.
You shouldn't be worried if you insert a board the wrong way thanks to provided reverse polarity protection. It doesn't matter which slot you use for each breakout either, because the I²C address of the breakout will be recognised by the software and it'll detect them correctly in case you move them around.
Features
Six sturdy edge-connector slots for Pimoroni breakouts
0.1” pitch, 5 pin connectors
Broken-out pins (1 × 10 strip of male header included)
Standoffs (M2.5, 10 mm height) included to hold your Breakout Garden securely
Reverse polarity protection (built into breakouts)
HAT format board
Compatible with Raspberry Pi 3 B+, 3, 2, B+, A+, Zero, and Zero W
It's suggested using the included standoffs to attache Breakout Garden to your Raspberry Pi.
Software
Breakout Garden doesn't require any software of its own, but each breakout you use will need a Python library. On the Breakout Garden GitHub page you'll find an automatic installer, which will install the appropriate software for a given breakout. There are also some examples that show you what else you can do with Breakout Garden.
The Siglent SDS1204X-E is a powerful 200 MHz four-channel oscilloscope that is built on the same platform as the very popular SDS1202X-E but with several significant improvements, including two 1 GSa/s ADCs and two 14 Mpt memory modules. Waveform capture rates are up to 100,000 wfms/s in normal mode and 400,000 wfms/s in sequence mode. The SDS1000X-E scopes feature a large 7” 256-level color display with intensity grading and color temperature features.
Specifications
Bandwidth
200 MHz
Sampling Rate (Max.)
1 GSa/s
Channels
2CH+EXT4CH
Memory Depth (Max.)
7 Mpts/CH (not interleave mode); 14 Mpts/CH (interleave mode)
Waveform Capture Rate (Max.)
100,000 wfms/s (normal mode), 400,000 wfms/s (sequence mode)
Trigger Types
Edge, Slope, Pulse width, Window, Runt, Interval, Dropout, Pattern, Video
Serial Trigger (Standard)
I²C, SPI, UART/RS232, CAN, LIN
Decode Type (Standard)
I²C, SPI, UART/RS232, CAN, LIN
16 Digital Channels (four channel series only, option)
Maximum waveform capture rate up to 1 GSa/s, Record length up to 14 Mpts/CH
USB AWG module (four channel series only, option)
One channel, 25 MHz, sample rate of 125 MHz, wave length of 16 kpts
Bode plot ( four channel series only)
Minimum start frequency of 10 Hz, minimum scan bandwith of 500 Hz, maximum scan bandwidth of 120 MHz (dependent on Oscilloscope and AWG bandwidth), 500 maximum scan frequency points
USB WIFI adapter (four channel series only, option)
802.11b/g/b, WPA-PSK, the adapter must be supplied by Siglent to ensure proper functioning
Downloads
Datasheet
Manual
Programming Guide
This book is intended as a highly-practical guide for Hobbyists, Engineers and Scientists wishing to build measurement and control systems to be controlled by a local or remote Personal Computer running the Linux operating system. Both hardware and software aspects of designing typical embedded systems are covered in detail with schematics, code listings and full descriptions. Numerous examples have been designed to show clearly how straightforward it can be to create the interfaces between digital and analog electronics, with programming techniques for creating control software for both local and remote systems. Hardware developers will appreciate the variety of circuits, including a novel, low cost modulated wireless link and will discover how using Matlab® overcomes the need for specialist programming skills.
Software developers will appreciate how a better understanding of circuits plus the freedom offered by Linux to directly control at the register level enables them to optimize related programs. There is no need to buy special equipment or expensive software tools in order to create embedded projects covered in this book. You can build such quality systems quickly using popular low-cost electronic components and free distributed or low-cost software tools. Some knowledge of basic electronics plus the very basics of C programming only is required.
Many projects in this book are developed using Matlab® being a very popular worldwide computational tool for research in engineering and science. The book provides a detailed description of how to combine the power of Matlab® with practical electronics.
With an emphasis on learning by doing, readers are encouraged by examples to program with ease; the book provides clear guidelines as to the appropriate programming techniques “on the fly”. Complete and well-documented source code is provided for all projects.
If you want to learn how to quickly build Linux-based applications able to collect, process and display data on a PC from various analog and digital sensors, how to control circuitry attached to a computer, then even how to pass data via a network or control your embedded system wirelessly and more – then this is the book for you!
Features of this Book
Use the power, flexibility and control offered only by a Linux operating system on a PC.
Use a free, distributed downloadable GNU C compiler Use (optional) a low-cost Student Version of Matlab®.
Use low-cost electronic sub-assemblies for projects.
Improve your skills in electronics, programming, networking and wireless design.
A full chapter is dedicated to controlling your sound card for audio input and output purposes.
Program sound using OSS and ALSA.
Learn how to combine electronic circuits, software, networks and wireless technologies in the complete embedded system.
The Punk Console circuit is an advanced tutorial to get you familiar with the V-One Drill attachment. Learn how to create a double sided board and turn the knobs to create music!
The kit contains:
2x Green LEDs
8x 1k Resistors
3x 0.01uF Capacitor
2x 500K Trimpots
1x 556 Timer
1x Piezo Buzzer
1x 9 V Battery
1x 9 V Battery Connector
Rivets and a V-One Drill are required.
The OWON SPS3081 Fanless Programmable DC Power Supply (120 W) delivers ultra-quiet, high-precision performance with 10 mV/1 mA accuracy and advanced heat dissipation for long-term reliability. Featuring comprehensive protection, a USB interface with SCPI support for remote control, and a 2.8-inch TFT LCD screen, it is the perfect choice for laboratories, electronics testing, and research.
Features
Fanless design: Ultra-quiet operation, reducing vibration noise and minimizing the potential failure risks associated with traditional cooling fans.
Excellent heat dissipation design: Ensures a controlled temperature rise, allowing long-term operation under full load conditions and extending internal component longevity.
Lightweight and ultra-thin design.
Output accuracy up to 10 mV/1 mA.
Supports List waveform editing and output, with four memory shortcut parameters for quick and convenient access.
Integrated protection features include overvoltage, overcurrent, overtemperature, and input undervoltage protection for enhanced safety.
Built-in discharge circuit prevents residual high voltage risks when the power is turned off.
USB communication interface with SCPI protocol support, enabling PC programming and remote control for simplified user management.
2.8-inch TFT LCD screen
Specifications
Model
SPS6051
SPS3081
Rated Output (0°C-40°C)
Voltage
0-61 V
0-31 V
Current
0-5.1 A
0-8.1 A
Power
150 W
120 W
Load Regulation
Voltage
≤30 mV
Current
≤20 mA
Power Regulation
Voltage
≤30 mV
Current
≤20 mA
Setting Resolution
Voltage
10 mV
Current
1 mA
Readback Resolution
Voltage
10 mV
Current
1 mA
Seting Accuracy (25°C ±5°C)
Voltage
≤0.05% ±20 mV
≤0.1% ±20 mV
Current
≤0.05% ±20 mA
≤0.2% ±20 mA
Readback Accuracy (25°C ±5°C)
Current
≤0.05% ±20 mV
≤0.1% ±20 mV
Voltage
≤0.05% ±20 mV
≤0.2% ±20 mA
Ripple/Noise
Voltage
≤30 mVp-p
≤30 mVp-p
Voltage
≤4 mVrms
≤5 mVrms
Current
≤10 mAp-p
≤30 mAp-p
Output temperature coefficient (0°C-40°C)
Voltage
100 ppm/°C
Current
200 ppm/°C
Readback temperature coefficient
Voltage
100 ppm/°C
Current
200 ppm/°C
Response Time (50-100% rated load)
≤1.0 ms
Storage
4 groups of data
Working Temperature
0-40°C
Display
2.8-inch color LCD display
Interface
USB
Dimensions (W x H x D)
82 x 142 x 226 mm
Weight
1.8 kg
Included
1x OWON SPS3081 Power Supply
2x Test leads
1x Power cord
1x Manual
Downloads
Datasheet
User Manual
Programming Manual
PC Software
The Siglent SDS814X HD digital storage oscilloscope is based on 2 GSa/s, 12-bit Analog-Digital Converters and front ends with excellent noise floor performance. With a 100 MHz bandwidth, and a maximum record length of 50 Mpts, and the capability to analyze 4 analog channels alongside 16 digital channels, the SDS814X HD is perfectly suited for mixed signal analysis.
Features
12-bit High Resolution
12-bit Analog-Digital Convertors with sample rate up to 2 GSa/s
Front ends with 70 μVrms noise floor @ 100 MHz bandwidth
2/4 analog channels, up to 700 MHz bandwidth
SPO technology
Waveform capture rate up to 80,000 wfm/s (normal mode), and 500,000 wfm/s (sequence mode)
Supports 256-level intensity grading and color temperature display modes.
Up to 50 Mpts record length
Digital trigger system
Intelligent trigger: Edge, Slope, Pulse width, Window, Runt, Interval, Dropout, Pattern, Video (HDTV supported), Qualified, Nth edge, Delay, Setup/Hold time.
Serial bus triggering and decoder, supports protocols I²C, SPI, UART, CAN, LIN.
Segmented acquisition (Sequence) mode, dividing the maximum record length into multiple segments (up to 80,000), according to trigger conditions set by the user, with a very small dead time between segments to capture the qualifying event.
History waveform record (History) function, the maximum recorded waveform length is 80,000 frames.
Automatic measurements on 50+ parameters, supports statistics with histogram, track, trend, Gating measurement, and measurements on Math, History and Ref.
4 Math traces (2 Mpts FFT, addition, subtraction, multiplication, division, integration, differential, square root, etc.), supports formula editor.
Abundant data analysis functions such as Search, Navigate, Counter, Bode plot and Power Analysis
High Speed hardware-based Mask Test function, with Mask Editor tool for creating user-defined masks
16 digital channels (optional)
25 MHz waveform generator (optional)
7" TFT-LCD display with 1024 x 600 resolution; Capacitive touch screen supports multi-touch gestures.
Interfaces include: USB Hosts, USB Device (USBTMC), LAN (VXI-11/Telnet/Socket), Pass/Fail, Trigger Out
Built-in web server supports remote control over the LAN port using a web browser. Supports SCPI remote control commands. Supports external mouse and keyboard. Supports NTP.
Specifications
Analog Channels
4
Bandwidth
100 MHz
Vertical resolution
12-bit
Sample rate (Max.)
One channel mode: 2 GSa/sTwo channel mode: 1 GSa/sFour channel mode: 500 MSa/s
Memory depth (Max.)
One channel mode: 50 Mpts/chTwo channel mode: 25 Mpts/chFour channel mode: 10Mpts/ch
Waveform capture rate (Max.)
Normal mode: 80,000 wfm/sSequence mode: 500,000 wfm/s
Trigger type
Edge, Slope, Pulse width, Window, Runt, Interval, Dropout, Pattern, Video, Qualified, Nth edge, Delay, Setup/Hold time, Serial
Serial trigger and decode (Standard)
I²C, SPI, UART, CAN, LIN
Measurement
50+ parameters, statistics, histogram, trend, and track supported
Math
4 traces 2 Mpts FFT, Filter, +, -, x, ÷, ∫dt, d/dt, √, Identity, Negation, Absolute, Sign, ex, 10x, ln, lg, Interpolation, MaxHold, MinHold, ERES, Average. Supports formula editor
Data analysis
Search, Navigate, History, Mask Test, Counter, Bode plot, and Power Analysis
Digital channel (optional)
16-channel; maximum sample rate up to 1 GSa/s; record length up to 10 Mpts
USB AWG module (option)
One channel, 25 MHz, sample rate of 125 MHz, wave length of 16 kpts, isolated output
I/O
2x USB 2.0 Host, USB 2.0 Device, 10/100 M LAN, Auxiliary output (TRIG OUT, PASS/FAIL), SBUS (Siglent MSO)
Probe (Standard)
Passive probe PB470 for each channel
Display
7 TFT-LCD with capacitive touch screen (1024x600)
Included
1x Siglent SDS814X Oscilloscope
4x Passive probe (100 MHz) PP510
1x Power cord (EU)
1x USB cable
1x Certificate of calibration
1x Quick start
Downloads
Datasheet
Manual
Programming guide
Two reasons can be identified for the immense success of the Arduino platform. First, the cheap, ready to go processor board greatly simplifies the introduction to hardware. The second success factor is the free and open-source programming suite that does not require an installation procedure.
Simple entry-level examples ensure rapid successes. Complex selection procedures for parameters like the microprocessor version or interface settings are not required. The first sample programs can be uploaded to the Arduino board, and tested, in a matter of minutes.
The Arduino user is supported by an array of software libraries. However, the daily increasing volume of libraries poses initial problems to the newcomer, and the way ahead may be uncertain after a few entry-level examples. In many cases, detailed descriptions are missing, and poorly described projects tend to confuse rather than elucidate. Clear guidance and a single motto are missing, usually owing to the projects having been created by several different persons—all with different aims in mind.
This book represents a different approach. All projects are presented in a systematical manner, guiding into various theme areas. In the coverage of must-know theory great attention is given to practical directions users can absorb, including essential programming techniques like A/D conversion, timers and interrupts—all contained in the hands-on projects. In this way readers of the book create running lights, a wakeup light, fully functional voltmeters, precision digital thermometers, clocks of many varieties, reaction speed meters, or mouse controlled robotic arms. While actively working on these projects the reader gets to truly comprehend and master the basics of the underlying controller technology.
The Raspberry Pi is a $35 credit-card sized computer with many applications, such as in desktop computing, audio and video playback, and as a controller in many industrial, commercial and domestic applications.
This book is about the Raspberry Pi computer and its use in control applications. The book explains in simple terms, with examples, how to configure the RPi, how to install and use the Linux operating system, how to write programs using the Python programming language and how to develop hardware based projects.
The book starts with an introduction to the Raspberry Pi computer and covers the topics of purchasing all the necessary equipment and installing/using the Linux operating system in command mode. Use of the user-friendly graphical desktop operating environment is explained using example applications. The RPi network interface is explained in simple steps and demonstrates 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, hardware development tools, hardware interface details, and RPi based hardware projects. All the 23 projects given in the book have been tested and are working.
The following headings are given for each project:
Project title
Project description
Project block diagram
Project circuit diagram
Project program description using the Program Description Language (PDL)
Complete program listing
Description of the program
The book is ideal for self-study, and is intended for electronic/electrical engineering students, practising engineers, research students, and hobbyists.
The Internet of Things (IoT) is a new concept in intelligent automation and intelligent monitoring using the Internet as the communications medium. The “Things” in IoT usually refer to devices that have unique identifiers and are connected to the Internet to exchange information with each other. Such devices usually have sensors and/or actuators that can be used to collect data about their environments and to monitor and control their environments. The collected data can be processed locally or it can be sent to centralized servers or to the cloud for remote storage and processing. For example, a small device at the size of a matchbox can be used to collect data about the temperature, relative humidity and the atmospheric pressure. This data can be sent and stored in the cloud. Anyone with a mobile device can then access and monitor this data at any time and from anywhere on Earth provided there is Internet connectivity. In addition, users can for example, adjust the central heating remotely using their mobile devices and accessing the cloud.
This book is written for students, for practising engineers and for hobbyists who want to learn more about the building blocks of an IoT system and also learn how to setup an IoT system using these blocks.
Chapter 1 is an introduction to the IoT systems. In Chapter 2, the basic concepts and possible IoT architectures are discussed. The important parts of any IoT system are the sensors and actuators and they are described briefly in Chapter 3. The devices in an IoT system usually communicate with each other and the important aspect of IoT communication is covered in Chapter 4. Chapter 5 proceeds with the features of some of the commonly used development kits. One of these, the Clicker 2 for PIC18FJ manufactured by mikroElektronika, can be used as a processor in IoT systems and its features are described in detail in Chapter 6. A popular microcontroller C language, mikroC Pro for PIC gets introduced in Chapter 7. Chapter 8 covers the use of a click board with the Clicker 2 for PIC18FJ development kit. Similarly, the use of a sensor click board is described as a project in Chapter 9, and an actuator board in Chapter 10. Chapters 11 and 12 cover Bluetooth and Wi-Fi technologies in microcontroller based systems, and the remaining chapters of the book demo the creation of a simple Wi-Fi based IoT system with cloud-based data storage.
This book has been written with the assumption that the reader has taken a course on digital logic design and has been exposed to writing programs using at least one high-level programming language. Knowledge of the C programming language will be very useful. Also, familiarity with at least one member of the PIC series of microcontrollers (e.g. PIC16 or PIC18) will be an advantage. The knowledge of assembly language programming is not required because all the projects in the book are based on using the C language. If you are a total beginner in programming you can still access the e-book, but first you are advised to study introductory books on microcontrollers.
Reinforcing its commitment to widening the accessibility to and innovation in the area of deep learning, NVIDIA has created a free, self-paced, online Deep Learning Institute (DLI) course, “Getting Started on AI with Jetson Nano.” The course's goal is to build foundational skills to enable anyone to get creative with the Jetson Developer Kit. Please be aware that this kit is for those who already own a Jetson Nano Developer Kit and want to join the DLI Course. A Jetson Nano is not included in this kit.
Included in this kit is everything you will need to get started in the “Getting Started on AI with Jetson Nano” (except for a Jetson Nano, of course), and you will learn how to
Set up your Jetson Nano and camera
Collect image data for classification models
Annotate image data for regression models
Train a neural network on your data to create your own models
Run inference on the Jetson Nano with the models you create
The NVIDIA Deep Learning Institute offers hands-on training in AI and accelerated computing to solve real-world problems. Developers, data scientists, researchers, and students can get practical experience powered by GPUs in the cloud and earn a competency certificate to support professional growth. They offer self-paced, online training for individuals, instructor-led workshops for teams, and downloadable course materials for university educators.
Included
32 GB microSD Card
Logitech C270 Webcam
Power Supply 5 V, 4 A
USB Cable - microB (Reversible)
2-Pin Jumper
Please note: Jetson Nano Developer Kit not included.
TapNLink modules provide wireless interfaces for linking electronic systems to mobile devices and the Cloud. TapNLink connects directly to the target system's microcontroller. It integrates into and is powered by the target system. All TapNLink products are easily configured to control access by different types of users to data in the target system.
TapNLink facilitates rapid creation of Human Machine Interfaces (HMI) that run on Android, iOS and Windows mobiles. HMI apps are easily customized for different users and can be deployed and updated to keep pace with evolving system requirements and user needs.
TapNLink Wi-Fi modules can also be configured to connect the target system permanently to a wireless network and the Cloud. This enables permanent logging of target system data and alarms.
Features
Wireless Channels
Wi-Fi 802.11b/g/n
Bluetooth Low Energy (BLE 4.2)
Near Field Communication (NFC) Type5 tag (ISO/IEC 15693)
Supported Target Connections: Connects on 2 GPIO of the target microcontroller and supports:
Serial interface with Software Secure Serial Port (S3P) protocol
Serial interface with ARM SWD debug protocol.
UART with Modbus protocol
Mobile Platform Support
HTML5 web apps (Android, iOS)
API for Cordova (Android, iOS, Windows 10)
Java (Android, iOS native)
Auto-app generator for Android and iOS mobiles
Security
Configurable access profiles
Configurable, encrypted passwords
AES-128/256 module-level data encryption
Configurable secure pairing with NFC
Dimensions: 38 mm x 28 mm x 3 mm
Electrical Characteristics
Input voltage: 2.3V to 3.6 V
Low power consumption:
Standby: 100 µA
NFC Tx/Rx: 7 mA
Wi-Fi Rx: 110 mA
Wi-Fi Tx : 280 mA (802.11b)
Temperature Range: -20°C ~ +55°C
Compliance
CE (Europe), FCC (USA), IC (Canada)
REACH
RoHS
WEEE
Ordering Information
Base Part Number: TnL-FIW103
MOQ: 20 modules
TapNLink modules pre-qualified, pre-programmed and ready to configure.
IoTize Studio configuration and testing software
Software for HMI on mobile devices (iOS, Android, Windows 10)
IoTize Cloud MQTT infrastructure (open source)
For more information, check out the datasheet here.
The Weller WT 1013 soldering station set includes the WT 1 supply unit, the WP 80 soldering iron and the WSR 201 safety rest. It is stackable and thus creates more space in the workplace. With an integrated usage sensor, the soldering tool switches off automatically.
Specifications
Channels
1
Voltage
230 V
Power
95 W
Display
Backlit LCD
Temperature range
50 °C - 450 °C
Temperature stability
±2 °C
Temperature accuracy
±9 °C
Fuse
0.5 A
Equipotential bonding
on
WT compatible
on
ESD-safe
on
Power cable
EMEA
Dimensions
149 x 138 x 101 mm
Weight (approx.)
1.9 kg
The SDRplay RSPdx-R2 is a wideband full featured single-tuner 14-bit SDR receiver which covers the entire RF spectrum from 1 kHz to 2 GHz giving up to 10 MHz of spectrum visibility. It contains three antenna ports, two of which use SMA connectors and operate across the full 1 kHz to 2 GHz range and the third uses a BNC connector which operates up to 200 MHz.
The RSPdx-R2 is an enhanced version of the RSPdx with further design improvements for use at frequencies below 2 MHz. Housed in a strong steel case, in addition to the functionality of the RSP1B, the RSPdx-R2 provides three software selectable antenna inputs and an external clock input. It offers excellent performance through HF and VHF frequencies all the way up to 2 GHz. The RSPdx-R2 also supports an "HDR mode" optimised for the demanding radio reception conditions below 2 MHz.
The RSPdx-R2, when used in conjunction with SDRplay’s own software, introduces a special HDR (High Dynamic Range) mode for reception within selected bands below 2 MHz. HDR mode delivers improved intermodulation performance and fewer spurious responses for those challenging bands.
Features
Covers all frequencies from 1 kHz through VLF, LF, MW, HF, VHF, UHF and L-band to 2 GHz, with no gaps
Receive, monitor and record up to 10 MHz of spectrum at a time
Significantly improved noise performance below 1 MHz (i.e. for some MF, LF and below)
Improved dynamic range below 2 MHz both in tuner mode and HDR mode
HDR mode below 2 MHz giving overall dynamic range and selectivity advantages
Software selectable choice of 3 antenna ports
External clock input for synchronisation purposes, or connection to GPS reference clock for extra frequency accuracy
Excellent dynamic range for challenging reception conditions
Free use of Windows-based SDRuno software (check website for versions supported)
Free use of SDRconnect SDR and server software for Windows, MacOS and Linux (Check website for versions supported)
Multiplatform driver and API support including Windows, Linux, Mac and Raspberry Pi 4/5
Strong and growing software support network
Calibrated S meter/RF power and SNR measurement with SDRuno (including datalogging to .CSV file capability)
Documented API provided to allow demodulator or application development on multiple platforms
Applications (Amateur)
Shortwave radio listening
Broadcast DXing (AM/FM/TV)
Panadaptor
Aircraft (ADS-B and ATC)
Slow Scan TV
Multi-amateur band monitoring
WSPR & digital modes
Weather fax (HF and satellite)
Satellite monitoring
Geostationary environmental satellites
Trunked radio
Utility and emergency service monitoring
Fast and effective antenna comparison
Applications (Industrial)
Spectrum Analyser
Surveillance
Wireless microphone monitoring
RF surveying
IoT receiver chain
Signal logging
RFI/EMC detection
Broadcast integrity monitoring
Spectrum monitoring
Power measurement
Applications (Educational/Scientific)
Teaching
Receiver design
Radio astronomy
Passive radar
Ionosonde
Spectrum analyser
Receiver for IoT sensor projects
Antenna research
Specifications
Frequency Range
1 kHz – 2 GHz
Antenna Connector
SMA
Antenna Impedance
50 Ohms
Current Consumption (Typical)
190 mA @ >60 MHz (excl. Bias-T)120 mA @ <60 MHz (excl. Bias-T)
USB Connector
USB-B
Maximum Input Power
+0 dBm Continuous+10 dBm Short Duration
ADC Sample Rates
2-10.66 MSPS
ADC Number of Bits
14 bit 2-6.048 MSPS12 bit 6.048-8.064 MSPS10 bit 8.064-9.216 MSPS8 bit >9.216 MSPS
Bias-T
4.7 V100 mA guaranteed
Reference
0.5ppm 24 MHz TCXOFrequency error trimmable to 0.01ppm in field
Operating Temperature
−10˚C to +60˚C
Dimensions
113 x 94 x 35 mm
Weight
315 g
Downloads
Datasheet
Software
RSPdx-R2 vs RSPduo
RSPdx-R2
RSPduo
Continuous coverage from 1 kHz to 2 GHz
✓
✓
Up to 10 MHz visible bandwidth
✓
✓
14-bit ADC silicon technology plus multiple high-performance input filters
✓
✓
Software selectable AM/FM & DAB broadcast band notch filters
✓
✓
4.7 V Bias-T for powering external remote antenna amplifier
✓
✓
Powers over the USB cable with a simple type B socket
✓
✓
50Ω SMA antenna input(s) for 1 kHz to 2 GHz operation (software selectable)
2
2
Additional software selectable Hi-Z input for up to 30 Mhz operation
✓
Additional software selectable 50Ω BNC input for up to 200 MHz operation
✓
Additional LF/VLF filter for below 500 kHz
✓
24 MHz reference clock input (+ output on RSPduo)
✓
✓
Dual tuners enabling reception on 2 totally independent 2 MHz ranges
✓
Dual tuners enabling diversity reception using SDRuno
✓
Rugged black painted steel case
✓
✓
Overall performance below 2 MHz for MW and LF
++
+
Multiple simultaneous applications
+
++
Performance in challenging fading conditions (*using diversity tuning)
+
*++
UNI-T UPO1202CS is a multifunctional, low-cost 2-channel digital phosphor oscilloscope with 200 MHz bandwidth and 1 GSa/s sampling rate. It can be widely used in the fields of electronic and electrical design, debugging, education and industrial design.
UPO1000CS series adopts parallel digital signal processing technology, which greatly improves the data processing speed and waveform capture rate. The original Ultra Phosphor technology can present the cumulative effect of the tested signal as a multi-layered afterglow. Compared with traditional digital storage oscilloscopes, the persistence of digital phosphor oscilloscopes can present three-dimensional waveform data of amplitude, time and signal intensity. Fast Acquire technology can accurately capture abnormal events such as video, jitter, noise and runt signals.
Specifications
UPO1102CS
UPO1202CS
Bandwidth
100 MHz
200 MHz
Analog channels
2
2
Sampling rate
1 GSa/s
1 GSa/s
Storage depth
56 Mpts per channel
56 Mpts per channel
Rise time
≤3.5ns
≤1.8ns
Capture rate
500,000 wfms/s
500,000 wfms/s
Waveform record
100,000 frames
100,000 frames
Features
7' WVGA (800 x 480) TFT LCD
Ultra Phosphor super fluorescent display effect, up to 256 levels of gray display
Support RS232, I²C, SPI, CAN and LIN trigger
Innovative RS232, I²C, SPI, CAN and LIN hardware decoding
Vertical scale: 1 mV/div-20 V/div
Low background noise: <100 μVrms
1M points enhanced FFT function. Support frequency setting, waterfall diagram, detection setting and marker measurement etc
36 kinds of waveform parameters can be automatically measured
Rich trigger functions (edge, pulse width, video, slope, runt, overshoot, delay, timeout, duration, setup and hold, Nth edge and pattern trigger)
Multi-Scopes support dual-channel independent trigger fluorescence display
Multi-channel independent 7-bit hardware frequency counter
DVM supports dual-channel independent AC and DC true RMS measurement
Waveform arithmetic functions (FFT, +, -, ×, ÷, digital filtering, logic operations, and advanced operations)
Rich interfaces: USB Host, USB Device, LAN, EXT Trig, AUX Out (Trig Out, Pass/Fail)
Support SCPI programmable instrument standard command
Support WEB access and control
Downloads
Datasheet
Programming Manual
User's Manual
Quick Start Guide
Software
The Siglent SPD4323X is a 4-channel DC Linear Programmable Power Supply equipped with a 4.3-inch TFT-LCD display, friendly human-machine interface, and excellent performance indicators. Real-time waveform display provides engineers with an informative user interface.
SPD4323X offers a total output power of 240 W with a resolution of 1 mV/1 mA. The maximum voltage and current for each channel are as follows:
CH1: 6 V/3.2 A
CH2: 32 V/3.2 A
CH3: 32 V/3.2 A
CH4: 6 V/3.2 A
Features
Rated output power: 240 W
Rated voltage: 32 V, 12 V, 30 V
Up to four high-precision power supplies with independent controllable outputs, supporting CH2 and CH3 series and parallel connections
Clear graphical interface with waveform and timer display modes
5-digit voltage and current display with minimum resolution of 1 mV, 1 mA
Fast output response time: <50us
The high current channel support remote voltage compensation sense function. The maximum compensation voltage is 0.6 V
Overvoltage protection and overcurrent protection or safe and accurate operation
Equipped with a 4.3-inch TFT-LCD display (480 x 272 resolution)
USB and LAN standard communication
USB-GPIB module is optional
Excellent channel density with up to 4 channels in a 3U half rack package
Internal data storage for setups and parameters
Embedded Web Server with instrument communication that doesn’t require software installation
Fully SCPI programming command set support as well as a LabView driver for remote control and system automation
Specifications
SPD4323X
SPD4121X
SPD4306X
Channel Output
CH1: Voltage 0 to 6 V Current 0 to 3.2 ACH2: Voltage 0 to 32 V Current 0 to 3.2 ACH3: Voltage 0 to 32 V Current 0 to 3.2 ACH4: Voltage 0 to 6 V Current 0 to 3.2 A
CH1: Voltage 0 to 15 V Current 0 to 1.5 ACH2: Voltage 0 to 12 V Current 0 to 10 ACH3: Voltage 0 to 12 V Current 0 to 10 ACH4: Voltage 0 to 15 V Current 0 to 1.5 A
CH1: Voltage 0 to 15 V Current 0 to 1.5 ACH2: Voltage 0 to 30 V Current 0 to 6 ACH3: Voltage 0 to 30 V Current 0 to 6 ACH4: Voltage 0 to 15 V Current 0 to 1 A
Resolution
1 mV, 1 mA
1 mV, 1 mA
1 mV, 1 mA
Setting Accuracy
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Readback Accuracy
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Voltage: ±(0.03% of reading+10) mV, Current: ±(0.3% of reading+10) mA
Display
4.3" TFT-LCD 5-digit voltage and current display
4.3" TFT-LCD 5-digit voltage and current display
4.3" TFT-LCD 5-digit voltage and current display
Output power
240 W
285 W
400 W
Included
1x Siglent SPD4323X Power Supply
1x Power cord (EU)
1x Output test cord (3 A)
1x USB cable
1x Quick start guide
Downloads
Datasheet
Manual
Quick start
If you are going to be drilling, we recommend drilling on FR1 substrates. Unlike FR4, FR1 dust does not contain fiber glass. It is also a softer material, which means a less wear and tear on the drill bits. Download the template and incorporate them into your design here. 10 substrates included.
These templates are your starting point if you’re building a Raspberry Pi HAT.
Each pack contains six Raspberry Pi B+ templates.
Downloads
Gerber files
The Arduino Pro Portenta Cat. M1/NB IoT GNSS Shield allows you to enhance the connectivity features of your Portenta H7 applications. The shield leverages a Cinterion TX62 wireless module by Thales, designed for highly efficient, low-power IoT applications to deliver optimized bandwidth and performance.
The Portenta Cat. M1/NB IoT GNSS Shield combines with the strong edge computing power of the Portenta H7 to enable the development of asset tracking and remote monitoring applications in industrial settings, as well as in agriculture, public utilities and smart cities. The shield offers cellular connectivity to both Cat. M1 and NB-IoT networks with the option to use eSIM technology. Easily track your valuables – across the city or worldwide – with your choice of GPS, GLONASS, Galileo or BeiDou.
Features
Change connectivity capabilities without changing the board
Add NB-IoT, CAT. M1 and positioning to any Portenta product
Possibility to create a small multiprotocol router (WiFi - BT + NB-IoT/CAT. M1)
Greatly reduce communication bandwidth requirements in IoT applications
Low-power module
Compatible also with MKR boards
Remote Monitoring
Industrial and agricultural companies can leverage the Portenta Cat. M1/NB IoT GNSS Shield to remotely monitor gas detectors, optical sensors, machinery alarm systems, biological bug traps and more.
Technology providers providing smart city solutions can compound the power and reliability of the Portenta H7 with the Portenta Cat. M1/NB IoT GNSS Shield, to connect data and automate actions for a truly optimized use of resources and enhanced user experience.
Asset Monitoring
Add monitoring capabilities to any asset by combining the performance and edge computing features of the Portenta family boards. The Portenta Cat. M1/NB IoT GNSS Shield is ideal to monitor valuable goods and also for monitoring industrial machinery and equipment.
Specifications
Connectivity
Cinterion TX62 wireless module; NB-IoT - LTE CAT.M1; 3GPP Rel.14 Compliant Protocol LTE Cat. M1/NB1/NB2; UMTS BANDS: 1 / 2 / 3 / 4 / 5 / 8 / 12(17) / 13 / 18 / 19 / 20 / 25 / 26 / 27 / 28 / 66 / 71 / 85; LTE Cat.M1 DL: max. 300 kbps, UL: max. 1.1 Mbps; LTE Cat.NB1 DL: max. 27 kbps, UL: max. 63 kbps; LTE Cat.NB2 DL: max. 124 kbps, UL: max. 158 kbps
Short messaging service (SMS)
Point-to-point mobile terminated (MT) and mobile originated (MO) Text Mode; Protocol Data Unit (PDU) Mode
Localization support
GNSS capability (GPS/BeiDou/Galileo/GLONASS)
Other
Embedded IPv4 and IPv6 TCP/IP stack access; Internet Services: TCP server/client, UDP client, DNS, Ping, HTTP client, FTP client, MQTT client Secure Connection with TLS/DTLS Secure boot
Dimensions
66 x 25.4 mm
Operating temperature
-40° C to +85° C (-104° F to 185°F)
Downloads
Datasheet
Schematics