Search results for "max1000 OR iot OR maker OR board OR 8kle OR 8 OR mb OR ram"

New Version available! Click here! HackRF One is a Software Defined Radio (SDR) peripheral capable of transmission or reception of radio signals from 1 MHz to 6 GHz. Designed to enable test and development of modern and next generation radio technologies, HackRF One is an open source hardware platform that can be used as a USB peripheral or programmed for stand-alone operation. Specifications 1 MHz to 6 GHz operating frequency Half-duplex transceiver Up to 20 million samples per second 8-bit quadrature samples (8-bit I and 8-bit Q) Compatible with GNU Radio, SDR and more Software-configurable RX and TX gain and baseband filter Software-controlled antenna port power (50 mA at 3.3 V) SMA female antenna connector SMA female clock input and output for synchronization Convenient buttons for programming Internal pin headers for expansion Hi-Speed USB 2.0 USB-powered Open source hardware HackRF One is test equipment for RF systems. It has not been tested for compliance with regulations governing transmission of radio signals. You are responsible for using your HackRF One legally. Included 1x HackRF One SDR 1x Plastic enclosure 1x micro-USB cable Note: An antenna is not included. ANT500 is recommended as a starter antenna for HackRF One. Downloads Documentation GitHub Source code and hardware design files

Read (+) (–)

The Raspberry Pi PoE+ HAT is an add-on board designed for Raspberry Pi 3 B+ and Raspberry Pi 4 equipped with PoE pins. It powers the Raspberry Pi through an Ethernet cable, provided that compatible Power-Sourcing Equipment (PSE) is present on the Ethernet network. Additionally, the HAT includes an integrated fan to cool the Raspberry Pi processor. Specifications Standard IEEE 802.3at-2003 PoE Input voltage 37-57 V DC, Class 4 device Output voltage 5 V DC/4 A Cooling 25 x 25 mm brushless fan delivering 2.2 CFM for processor cooling Operating temperature 0°C to +50°C Downloads Datasheet

Read (+) (–)

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. The 13 TOPS model efficiently supports neural networks for tasks like object detection, semantic and instance segmentation, pose estimation, and more. This 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+ (26 TOPS) Mounting hardware kit (spacers, screws) 16 mm GPIO stacking header Downloads Datasheet

Read (+) (–)

Fully updated for Raspberry Pi Pico W, this book gets you started with Raspberry Pi Pico – whether you’re using Raspberry Pi Pico for a home project, industrial automation, or learning (or teaching!) electronics and programming. Microcontrollers, like the RP2040 chip at the heart of Raspberry Pi Pico, are computers stripped back to their bare essentials. You don’t use monitors or keyboards with them – instead, you program them over USB to take their input from (and send their output to) on-board input/output pins. Using these programmable connections, you can light LEDs, make noises, send text to screens, and much more. In this book, you will learn how to use the beginner-friendly MicroPython language to write programs, and you’ll connect up hardware to make your Raspberry Pi Pico interact with the world around it. Using these skills, you can create your own electromechanical projects, whether for fun or to make your life easier. Fully updated for Raspberry Pi Pico W and the latest version of MicroPython, this book shows you how to: Get started with Raspberry Pi Pico and Pico W Work with various electronic components Create your own programmable electronic contraptions Turn Raspberry Pi Pico W into a network-connected node for the Internet of Things Link your Pico W to your smartphone, tablet, or another Pico W with Bluetooth Low Energy (BLE) Whether you’re using Raspberry Pi Pico for a home project, industrial automation, or learning (or teaching!) electronics and programming, this book will show you how.

Read (+) (–)

Solder Paste Dispensing and Reflow All-in-One The Voltera V-One creates two-layer prototype circuit boards on your desk. Gerber files go in, printed circuit boards come out. The dispenser lays down a silver-based conductive ink to print your circuit right before your eyes. Assembling traditional and additive boards is easy with the V-One’s solder paste dispensing and reflow features. Simply mount your board on the print bed and import your Gerber file into Voltera’s software. No more stencils required Voltera’s software is designed to be understood easily. From importing your Gerber files to the moment you press print, the software safely walks you through each step. Compatible with EAGLE, Altium, KiCad, Mentor Graphics, Cadence, DipTrace, Upverter. Included V-One PCB printer V-One dispenser V-One probe Nozzle pack Tip caps 3 x 4" FR1 substrate pack 2 x 3" FR1 substrate pack Substrate clamps Thumbscrew pack Hello World kit Solder wire Tweezers Power supply Power adapter Cables User guides Downloads Specifications V-One Software Manuals Safety Datasheets Technical Datasheets Voltera CAM file for EAGLE Substrates and Templates More Info Frequently Asked Questions More from the Voltera community Technical Specifications Printing Specifications Minimum trace width 0.2 mm Minimum passive size 1005 Minimum pin-to-pin pitch (conductive ink) 0.8 mml Minimum pin-to-pin pitch (solder paste) 0.5 mml Resistivity 12 mΩ/sq @ 70 um height Substrate material FR4 Maximum board thickness 3 mm Soldering Specifications Solder paste alloy Sn42/Bi57.6/Ag0.4 Solder wire alloy SnBiAg1 Soldering iron temperature 180-210°C Print Bed Print area 135 x 113.5 mm Max. heated bed temperature 240°C Heated bed ramp rate ~2°C/s Footprint Dimensions 390 x 257 x 207 mm (L x W x H) Weight 7 kg Computing Requirements Compatible operating systems Windows 7 or higher, MacOS 10.11 or higher Compatible file format Gerber Connection type Wired USB Certification EN 61326-1:2013 EMC requirements IEC 61010-1 Safety requirements CE Marking Affixed to the Voltera V-One printers delivered to European customers Designed and assembled in Canada. More technical information Quickstart Explore Flexible Printed Electronics on the V-One Voltera V-One Capabilities Reel Voltera V-One PCB Printer Walkthrough Unpacking the V-One V-One: Solder Paste Dispensing and Reflow All-in-One Voltera @ Stanford University's Bao Research Group: Robotic Skin and Stretchable Sensors Voltera @ Princeton: The Future of Aerospace Innovation

Read (+) (–)

The Raspberry Pi High Quality Camera is an affordable high-quality camera from Raspberry Pi. It offers 12-megapixel resolution and a 7.9-mm diagonal sensor for impressive low-light performance. The M12 Mount variant is designed to work with most interchangeable M12 lenses, and the CS Mount variant is designed to work with interchangeable lenses in both CS and C mount form factors (C mount lenses require the use of the C-CS adapter included with this variant). Other lens form factors can be accommodated using third-party lens adapters. The High Quality Camera is well suited to industrial and consumer applications, including security cameras, which require the highest levels of visual fidelity and/ or integration with specialist optics. It is compatible with all models of Raspberry Pi from Model B onwards. Specifications Sensor Sony IMX477R stacked, back-illuminated sensor Resolution 12.3 megapixels Sensor size 7.9 mm sensor diagonal Pixel size 1.55 x 1.55 μm Output RAW12/10/8, COMP8 Back focus length of lens 2.6–11.8 mm (M12 Mount variant)12.5–22.4 mm (CS Mount variant) Lens sensor format 1/2.3” (7.9 mm) or larger IR cut filter Integrated Ribbon cable length 200 mm Tripod mount 1/4”-20 Included 1x Circuit board carrying a Sony IMX477 sensor 1x FPC cable for connection to a Raspberry Pi computer 1x Milled aluminium lens mount with integrated tripod mount 1x C to CS mount adapter 3x Lens locking rings Required M12 Mount Lens

Read (+) (–)

The Raspberry Pi USB 3 Hub expands your device connectivity by converting a single USB-A port into four USB 3.0 ports. With an optional external USB-C power input, it can support high-power peripherals, while lower-power peripherals work without additional power. The USB 3 Hub is fully tested for seamless compatibility with all Raspberry Pi products. Features Single Upstream Connection: USB 3.0 Type-A connector with an 8 cm captive cable Four Downstream Ports: USB 3.0 Type-A ports for multiple device connections High-Speed Data Transfer: Supports speeds up to 5 Gbps Compatibility: Works with USB 3.0 Type-A host ports and is backward-compatible with USB 2.0 ports Downloads Datasheet

Read (+) (–)

Opera Cake is an antenna switching add-on board for HackRF One/Pro that is configured with command-line software either manually, or for automated port switching based on frequency or time. It has two primary ports, each connected to any of eight secondary ports, and is optimized for use as a pair of 1x4 switches or as a single 1x8 switch. Its recommended frequency range is 1 MHz to 4 GHz. When HackRF One/Pro is used to transmit, Opera Cake can automatically route its output to the appropriate transmit antennas, as well as any external filters, amplifiers, etc. No changes are needed to the existing SDR software, but full control from the host is available. Opera Cake also enhances the HackRF One/Pro’s use as a spectrum analyzer across its entire operating frequency range of 1 MHz to 4 GHz. Antenna switching works with the existing hackrf_sweep feature, which can sweep the whole tuning range in less than a second. Automatic switching mid-sweep enables the use of multiple antennas when sweeping a wide frequency range. Downloads Documentation GitHub

Read (+) (–)

The Raspberry Pi PoE+ Injector adds Power-over-Ethernet (PoE) functionality to a single port of a non-PoE Ethernet switch, delivering both power and data through one Ethernet cable. It provides a plug-and-play, cost-effective solution for incrementally introducing PoE capability into existing Ethernet networks. The PoE+ Injector is a single-port, 30 W device suitable for powering equipment compliant with IEEE 802.3af and 802.3at standards, including all generations of Raspberry Pi PoE HATs. It supports network pass-through speeds of 10/100/1000 Mbps. Note: A separate IEC mains cable is required for operation (not included). Specifications Data rate 10/100/1000 Mbps Input voltage 100 to 240 V AC Output power 30 W Power output on pins 4/5 (+), 7/8 (–) Nominal output voltage 55 V DC Data connectors Shielded RJ-45, EIA 568A and 568B Power connector IEC c13 mains power input (not included) Storage humidity Maximum 95%, non-condensing Operating altitude –300 m to 3000 m Operating ambient temperature 10°C to +50°C Dimensions 159 x 51.8 x 33.5 mm Downloads Datasheet

Read (+) (–)

This FeatherWing will make it easy to add data logging to any Feather Board you might have. You get both an I²C real-time clock (PCF8523) with 32 KHz crystal and battery backup, and a microSD socket that connects to the SPI port pins (+ extra pin for CS). Note: FeatherWing doesn't come with a microSD card. A CR1220 coin cell is required to use the RTC battery-backup capabilities. If you're not using the RTC part of the FeatherWing, a battery is not required. To talk to the microSD card socket Arduino's default SD library is recommended. Some light soldering is required to attach the headers onto the Wing. Pinouts Power pins   On the bottom row, the 3.3 V (second from left) and GND (fourth from left) pin are used to power the SD card and RTC (to take a load off the coin cell battery when main power is available) RTC & I²C Pins In the top right SDA (rightmost) and SCL (to the left of SDA) are used to talk to the RTC chip. SCL - I²C clock pin to connect to your microcontroller's I2C clock line. This pin has a 10 kΩ pull-up resistor to 3.3 V SDA - I²C data pin to connect to your microcontroller's I2C data line. This pin has a 10 kΩ pull-up resistor to 3.3 V There's also a breakout for INT which is the output pin from the RTC. It can be used as an interrupt output or it could also be used to generate a square wave. Note that this pin is an open drain - you must enable the internal pull-up on whatever digital pin it is connected to. SD & SPI Pins Starting from the left you've got SPI Clock (SCK) - output from feather to wing SPI Master Out Slave In (MOSI) - output from feather to wing SPI Master In Slave Out (MISO) - input from wing to feather These pins are in the same location on every Feather. They are used for communicating with the SD card. When the SD card is not inserted, these pins are completely free.

Read (+) (–)

A Retro Roll with a Neon Soul LED-based dice are common, but their light is cold. Not so for this electronic neon dice, which displays its value with the warm glow of neon lamps. It is perfect for playing games on cold, dark winter evenings. The pips of the dice are neon lamps and the random number generator has six neon lamps to show that it is working. Even though the dice has an on-board 100-V power supply, it is completely safe. As with all Elektor Classic products, the dice too has its circuit diagram printed on the front while an explanation of how the circuit works can be found on the rear side. The Neon Lamp Dice comes as a kit of easy-to-solder through-hole parts. The power supply is a 9-V battery (not included). Features Warm Vintage Glow Elektor Heritage Circuit Symbols Tried & Tested by Elektor Labs Educational & Geeky Project Through-Hole Parts Only Included Printed Circuit Board All Components Wooden Stand Required 9 V battery Component List Resistors (THT, 150 V, 0.25 W) R1, R2, R3, R4, R5, R6, R14 = 1 MΩ R7, R8, R9, R10, R11, R12 = 18 kΩ R13, R15, R16, R17, R18, R21, R23, R24, R25, R26, R28, R30, R33 = 100 kΩ R32, R34 = 1.2 kΩ R19, R20, R22, R27, R29 = 4.7 kΩ R31 = 1 Ω Capacitors C1, C2, C3, C4, C5, C6 = 470 nF, 50 V, 5 mm pitch C7, C9, C11, C12 = 1 µF, 16 V, 2 mm pitch C8 = 470 pF, 50 V, 5 mm pitch C10 = 1 µF, 250 V, 2.5 mm pitch Inductors L1 = 470 µH Semiconductors D1, D2, D3, D4, D5, D6, D7 = 1N4148 D8 = STPS1150 IC1 = NE555 IC2 = 74HC374 IC3 = MC34063 IC4 = 78L05 T1, T2, T3, T4, T5 = MPSA42 T6 = STQ2LN60K3-AP Miscellaneous K1 = PP3 9 V battery holder NE1, NE2, NE3, NE4, NE5, NE6, NE7, NE8, NE9, NE10, NE11, NE12, NE13 = neon light S2 = Miniature slide switch S1 = Pushbutton (12 x 12 mm)

Read (+) (–)

The Raspberry Pi AI Camera is a compact camera module based on the Sony IMX500 Intelligent Vision Sensor. The IMX500 combines a 12 MP CMOS image sensor with on-board inferencing acceleration for various common neural network models, allowing users to develop sophisticated vision-based AI applications without requiring a separate accelerator. The AI Camera enhances captured still images or video with tensor metadata, while keeping the Raspberry Pi's processor free for other tasks. Support for tensor metadata in the libcamera and Picamera2 libraries, as well as the rpicam-apps application suite, ensures ease of use for beginners while providing unparalleled power and flexibility for advanced users. The Raspberry Pi AI Camera is compatible with all Raspberry Pi models. Features 12 MP Sony IMX500 Intelligent Vision Sensor Sensor modes: 4056x3040 (@ 10fps), 2028x1520 (@ 30fps) 1.55 x 1.55 µm cell size 78-degree field of view with manually adjustable focus Integrated RP2040 for neural network and firmware management Specifications Sensor Sony IMX500 Resolution 12.3 MP (4056 x 3040 pixels) Sensor size 7.857 mm (type 1/2.3) Pixel size 1.55 x 1.55 μm IR cut filter Integrated Autofocus Manual adjustable focus Focus range 20 cm – ∞ Focal length 4.74 mm Horizontal FOV 66 ±3° Vertical FOV 52.3 ±3° Focal ratio (F-stop) F1.79 Output Image (Bayer RAW10), ISP output (YUV/RGB), ROI, metadata Input tensor maximum size 640 x 640 (H x V) Framerate • 2x2 binned: 2028x1520 10-bit 30fps• Full resolution: 4056x3040 10-bit 10fps Ribbon cable length 20 cm Cable connector 15 x 1 mm FPC or 22 x 0.5 mm FPC Dimensions 25 x 24 x 11.9 mm Downloads Datasheet Documentation

Read (+) (–)