MCP6V51 45 V Zero-Drift Op-Amp

The MCP6V51 operational amplifier provides input offset voltage correction for very low offset and offset drift. This device provides a gain bandwidth product of 2 MHz, is unity gain stable, has no 1/f noise, and provides superior CMRR and PSRR performance. These products operate with a single supply voltage from 4.5V to 45V, with a maximum quiescent current of only 590 uA.

The MCP6V51 op-amp from Microchip provides ultra-high precision measurement while minimizing the increasing influence of high-frequency interference by offering a wide operating range and on-chip EMI filters. The growth of industrial control and factory automation has led to an uptick in the number of sensors that need to be monitored, and the MCP6V51 amplifier is designed to provide accurate, stable data from a variety of sensors. The self-correcting, zero-drift architecture of the MCP6V51 enables ultra-high DC precision that provides a maximum offset of 15 µV and only 36 nV/°C of maximum offset drift. The op-amp supports an ultra-wide operating voltage range of 4.5 V to 45 V, which is ideal for applications including factory automation, process controls, and building automation. High-frequency interference within sensitive analog measurement is becoming a critical consideration with the proliferation of wireless sensors and capabilities. The additional on-chip EMI filtering within the MCP6V51 provides protection from these unwanted and unpredictable interference sources.

The 8-pin SOIC/MSOP/TSSOP/DIP evaluation board (SOIC8EV) is a blank PCB that allows the operation of Microchip’s 8-pin devices to be easily evaluated. Each device pin is connected to a pull-up resistor, a pull-down resistor, an in-line resistor, and a loading capacitor. The PCB pads allow through-hole or surface-mount connectors to be installed to the board with ease. Additional passive component footprints are on the board, to allow simple circuits to be implemented.

Features

  • Zero-drift architecture
  • Max. offset: 15 µV
  • Max. offset drift: 36 nV/°C
  • Wide operating range: 4.5 V to 45 V
  • No 1/f noise
  • Gain bandwidth product (GBWP): 2 MHz
  • Enhanced EMI rejection
  • Small, 5-pin SOT-23 and 8-pin MSOP packaging

more information: www.microchip.com

Cypress Semiconductor PSoC® 6 BLE Prototyping Board

Cypress Semiconductor PSoC® 6 BLE Prototyping Board (CY8CPROTO-063-BLE) is a low-cost hardware platform enabling design and debugging of PSoC 6 MCU based applications. The PSoC 6 BLE Prototyping Board provides easy access to all the device I/Os in a breadboard-compatible format, and includes an LED, a push button, and current measuring jumpers. This Board is designed with a snap-away form-factor, allowing users to separate the KitProg on-board programmer and debugger module from the target board for independent use.

The PSoC 6 BLE Prototyping Kit provides easy access to 36 GPIOs and to the programmable digital and analog peripherals offered with the module. The kit also includes current-measuring jumpers, a push button, and two LEDs. The PSoC 6 BLE Prototyping Kit features a KitProg2 onboard programmer and debugger with a perforated snap-away design, allowing engineers to use the module independently from the target board. The board also includes a MikroElektronika mikroBUS interface for use with MikroElektronika Click boards, which allow expanded functionality without additional hardware configuration.

The PSoC 6 BLE Prototyping Board features the PSoC 63 BLE Module (CYBLE-416045-02) which is a fully certified, integrated, and programmable turnkey solution for developers wanting to easily add Bluetooth connectivity to their IoT design. This module retains all of the programmability and flexibility that comes with PSoC MCUs, combining programmable and reconfigurable analog and digital blocks with flexible automatic routing as well as digital programmable logic, high-performance Analog-to-Digital Conversion (ADC), low-power comparators, and standard communication and timing peripherals.

The PSoC 63 BLE Module (CYBLE-416045-02) provides a royalty-free BLE stack supporting Bluetooth 5.0, and provides 36 GPIOs in a 14mm x 18.5mm x 2.00mm package. The PSoC 6 BLE Prototyping Board along with the on-board BLE Module offer an ideal development platform for IoT designers seeking a high-performance, BLE wireless solution.

Features

  • CYBLE-416045-02 Creator Module
    • Cypress Semiconductor PSoC 63 BLE Microcontroller
    • Up to 36 GPIOs with programmable drive modes, strengths, and slew rates
    • 1MB Application Flash with 32KB EEPROM area and 32KB Secure Flash
    • Integrated trace antenna and passive components
  • PSoC 6 MCU I/O headers
  • PSoC Creator Integrated Design Environment (IDE)
  • Two LEDs to provide feedback
  • A push button for user input
  • Footprint for external ECO (2.0mm x 1.6mm, 24MHz)
  • External WCO (32.768kHz)
  • KitProg2 onboard programmer/debugger with CMSIS-DAP mode and USB to UART/I2C bridge functionality
  • Perforated snap-away board design
  • 1.8V to 3.3V operation

To learn more, visit www.mouser.com/cypress-psoc-6-ble-proto-board

Texas Instruments TPSM846C24 High-Density Step-Down Power Module

Texas Instruments TPSM846C24 35A Power Modules offer a fixed frequency and incorporate the controller, power MOSFETs, inductor, and associated components into a thermally enhanced, surface-mount package. To set the operating parameters of the module, the user supplies the input and output capacitors as well as a few other passive components. A two-phase power solution can be achieved by configuring two modules to work in parallel up to 70A with current sharing. The TPSM846C24 operates at an IC Junction Range of –40°C to +125°C. The device provides a 15mm × 16mm component footprint that is easy to solder onto a printed circuit board and allows a compact, point-of-load design.

TI’s PSM846C24, available from Mouser Electronics, is a fixed-frequency, 35 A, step-down power module that incorporates a controller, power MOSFETs, inductor, and associated components into a thermally enhanced, surface-mount package. Setting the operating parameters of the module requires just input and output capacitors as well as a few other passive components.

The module is supported by the TPSM846C24EVM-006 and TPSM846C24EVM-007 evaluation modules. Both evaluation modules provide test points and jumpers to facilitate easy testing. The TPSM846C24EVM-006 contains a single TPSM846C24 module, while the TPSM846C24EVM-007 contains two TPSM846C24 modules working in parallel to enable up to 70 A output current.

Features

  • Complete Integrated 35A Power Solution
  • Power-Good Output
  • Pin Compatible With TPSM846C23 (PMBus)
  • Stackable up to 70A With Current Sharing
  • Output Voltage Range 0.5V to 2V
  • Output Voltage Accuracy as Tight as 0.5%
  • 15mm × 16mm Footprint (6.4mm Maximum Height)
  • 300kHz to 1MHz Switching Frequency
  • Synchronization to an External Clock
  • Differential Remote Sense
  • Prebias Output Monotonic Start-up
  • Fixed 3ms Soft-Start/Soft-Stop Time
  • Overcurrent Protection
  • Operating IC Junction Range: –40°C to +125°C
  • Operating Ambient Range: –40°C to +105°C
  • Enhanced Thermal Performance: 8.7°C/W
  • Meets EN55022 Class A Emissions

For more information, visit www.mouser.com/ti-tpsm846c24-power-modules.

Rohde & Schwarz HMC8012 Digital Multimeter with 5-3/4 Digit Display (480,000 Counts)

The HMC8012 provides a diverse choice of easily accessible measurement and mathematical functions. Multimeter is able to simultaneously display up to three measurements that are now even easier to read from a crisp color TFT display. Considering the compact size of HMC8012, it will fit perfectly both on a bench and on a shelf. Other specifications: Measurement range: DC to 100 kHz. Resolution: 1 μV, 100 nA, 1 mΩ, 1 pF, 1 Hz, 0.1 °C/F. Measurement rate: up to 200 values/s. Measurement functions: V (DC), I (DC), V (AC), I (AC), frequency, DC power, resistance (two and four-wire), temperature (PT100/PT500/PT1000), capacitance, diode and continuity test.

Key Facts

  • Measurement range: DC to 100 kHz
  • Resolution: 1 μV, 100 nA, 1 mΩ, 1 pF, 1 Hz, 0.1 °C/F
  • Basic accuracy: 0.015 % (DC)
  • 5¾-digit display (480 000 counts)
  • Simultaneous display of three measurement functions, e.g. DC + AC + statistics
  • Measurement rate: up to 200 values/s
  • Measurement functions: V (DC), I (DC), V (AC), I (AC), frequency, DC power, resistance (two and fourwire), temperature (PT100/PT500/PT1000), capacitance, diode and continuity test
  • Mathematic functions: limit testing, min./max., average, offset, DC power, dB, dBm
  • Data logging to internal memory or USB flash drive in CSV format
  • Interfaces: USB-TMC/-VCP, Ethernet, LXI, IEEE-488 (GPIB)
  • SCPI commands largely compatible with Agilent 34410A (HMC8012-G)
  • HMC8012-G: HMC8012 incl. IEEE-488 (GPIB) interface

Review Video

Rohde & Schwarz HMC8012 Digital Multimeter costs ~£650.00 from various distributors online.

Toshiba Memory Europe Unveils 1TB Single Package PCIe Gen3 x4L SSDs

Toshiba Memory Europe announced the introduction of the fourth generation of its single package ball grid array (BGA) solid state drive (SSD) BG4 series at CES 2019. Toshiba Memory’s new line-up of ultra-compact NVMe™ SSDs places both the flash and an all-new controller into one package, bringing design flexibility to ultra-thin PC notebooks, embedded systems and server boot in data centers.

The BGA form factor SSD enables larger amounts of flash to be added to smaller and thinner devices, and extends battery life to improve the mobile experience,” said Jeff Janukowicz, research vice president, Solid State Drives and Enabling Technologies at IDC. “NVMe™ BGA solutions, such as the new TOSHIBA BG4 series, provide OEMs with a better-than-SATA storage option that boosts demand for client SSD units. In fact, we expect this demand to increase at a 2017-2022 CAGR of 14 percent.

Toshiba Memory has long been at the forefront of delivering SSDs that enable smaller, thinner, lighter, and more power efficient mobile designs. The company was the first to develop a single package PCIe® SSD, and the introduction of the fourth generation BG series represents another pioneering achievement as the densest client SSD by volumetric measurements[2]. Utilizing Toshiba Memory’s innovative 96-layer BiCS FLASHTM 3D memory, BG4 increases the maximum capacity from 512GB to 1024GB (approximately 1TB)[3] and provides a slim 1.3mm profile for capacities up to 512GB[4]. Furthermore, the BG4 series doubles the PCIe Gen3 lane count from 2 to 4, delivering more performance in the same power envelope when compared to the prior generation product.

Performance improvements[5] over the BG3 series include:

  • Up to 2,250 MB/s sequential read (50 percent improvement) and up to 1,700 MB/s sequential write performance[6] (70 percent improvement)
  • Up to 380,000 random read IOPS (153 percent improvement) and 190,000 random write IOPS[7] (90 percent improvement)

The BG4 is set to rapidly replace SATA SSDs in notebooks and PCs,” said Paul Rowan, vice president of the SSD business unit of Toshiba Memory Europe. “Not only because of its performance that exceeds client SATA drives up to 4 times[8], but also because of its reduced power consumption and compact footprint.

Compared to BG3 series, BG4 SSDs feature a power-saving solution that improves power efficiency up to 20 percent in read and 7 percent in write[9] and provides a low-power state[10] as low as 5mW. The BG4 also improved its Host Memory Buffer (HMB) technology by increasing the accelerated read access range and optimizing background flash management. Additionally, BG4 includes new enhanced reliability features to protect against host DRAM failures when using the HMB feature.

Paul Rowan continues: “Toshiba Memory understands our customers’ needs to gain competitive advantage. The BG4 series, as a result, offers enhanced user-experience through an increase in storage capacity, significantly improved performance while prioritising power efficiency.

Providing essential options for today’s mobile devices, Toshiba Memory’s new single package SSD is available in capacities of 128GB, 256GB, 512GB, and 1024GB (approximately 1TB), in either surface-mount BGA M.2 1620 (16 x 20mm) or removable M.2 2230 (22 x 30mm) module. Pyrite drive (version 1.00) or self-encrypting drive (TCG Opal version 2.01) models[11] are also available.

Toshiba Memory offers the industry’s broadest SSD portfolio, including a wide array of client SSDs. The BG4 series is currently sampling to select OEM customers, with general sample availability expected later in the second calendar quarter of 2019. During CES, Toshiba Memory America, Inc. will showcase the BG4 series in its private demo suite at the Venetian® Resort from January 8 – 11.

For more information, please visit https://business.toshiba-memory.com/en-emea/

94.5% Efficiency, 24V @ 21A – 500W industrial AC-DC reference design

This reference design is a compact, high efficiency, 24-V DC, 500-W reference design for industrial AC/DC power supplies. This design consists of a front-end, two-phase interleaved transition mode (TM) power factor correction (PFC) based on the UCC28064A. This minimizes the PFC inductor size and reduces EMI filter requirements. The DC-DC is implemented using the HB-LLC stage implemented using TI’s UCC256301 device. For efficiency improvement, synchronous rectification is used at secondary which uses the UCC24612.

This reference design is a 500-W high efficiency industrial AC/DC power supply. The design consists of a two-phase-interleaved, critical conduction mode (CrCM) PFC converter, which operates from an input voltage range of 85- to 265-V AC RMS and generates a 400-V DC bus. The second stage is made up of an isolated half-bridge LLC stage, which generates a 24-V, 20-A nominal output. Industrial power supplies have requirements of high efficiency over their entire operating voltage range and wide load variations from a 50% to 100% load. This design demonstrates high efficiency operation in a small form factor (155 × 125 mm) and delivers continuous 480 W of power over the entire input operating voltage range from 85-to 265-V AC. It gives an efficiency of > 94.5% for 230-V AC nominal operation and 92% for 115-V AC nominal operation.

Features

  • Overall efficiency of 94.5% at full load with peak efficiency > 95%
  • Up to 330-W operation without forced cooling
  • High power factor > 0.99 and meets PFC regulations and current THD as per IEC 61000-3- 2 Class A
  • Meets requirements of conducted emissions standard (EN55011 Class B)
  • ZCS avoidance feature and OVP sensing feature in LLC controller improves robustness and protects systems from overcurrent, short circuit, and overvoltage to ensure safety
  • Small 160 mm × 80 mm × 35 mm PCB form factor

more information on http://www.ti.com/tool/TIDA-010015

SenseTemp – An accurate and flexible four-channel temperature sensor

SenseTemp by Capable Robot Components is an accurate and flexible four-channel temperature sensor for instrumenting electronics that is compatible with Adafruit M0 Adalogger and is of course Open Source.

SenseTemp is an open source, four-channel temperature sensor designed for instrumenting electronics. It uses extremely accurate platinum resistive temperature detector (RTD) elements which are small enough to place directly on ICs, heatsinks, and other points of interest on an electronic circuit board.

Features & Specifications

  • Small: The resistive temperature detector (RTD) elements are 2 mm x 4 mm x 1 mm, making them thermally responsive and great for measuring small or dynamic point heat sources. The interface PCB is also small and easy to mount to a mobile system or within existing equipment.
  • Battery Powered: including Li-Poly & USB power banks
  • Wireless Option: to make test setup faster and more flexible
  • Accurate: to ensure that temperature data is useful, actionable, and repeatable
  • Sensing
    • Sensor: platinum resistive temperature detector (RTD) driven by MAX31865
    • Channels: 4
    • Accuracy: ±0.32°C @ 0°C and ±0.39°C @ 100°C (see below)
    • Range: -50°C to 260°C (when using silicone harness)
  • Actuation (SenseTemp TEC only)
    • Thermo-electric cooler (TEC) driver: VNH5019A + necessary passives for 12 V Peltier junction (@ 5 A or less)
    • Auxiliary switchable power output (12 V @ 1 A) for driving fan or other device
  • Sensor Cable Harness
    • Connector: single 16-pin IDC header breaks out to 4 x four-wire RTD leads
    • Ribbon cable: 30 AWG, 0.025” pitch, silicone insulation
    • Available cable lengths: 0.4 m, 0.7 m, 1.5 m
  • Adafruit Feather Compatibility
  • Software
    • CircuitPython (for feathers with Atmel SAMD21 M0/M4 processor)
    • MicroPython (for feathers with ESP32 processor)
  • Power
    • USB-powered via Adafruit Feather
    • Independent 5 V to 3.3 V regulators for the host Feather and MAX31865
    • SenseTemp only:
      • Supports optional Li-Poly battery
      • Sensing ICs can be powered down to extend battery life
    • SenseTemp TEC only:
      • 12 V power input on two-pin Molex Micro-Fit 3.0 connector
      • 12 V @ 1 A switchable aux power output (for driving a fan or other device)
      • On-board 12 V to 5 V DC-DC converter for USB-free operation ICs
  • Storage
    • 1 Kb on-board EEPROM for product serial number and metadata
    • Stream or log with Adafruit Feather
  • Board Dimensions
    • SenseTemp: 0.9” x 2.4”
    • SenseTemp TEC: 1.8” x 2.5”
  • License & Documentation

SenseTemp features Platinum Sensors & Custom Silicone Ribbon Cables

The platinum RTD elements are very small (2 mm x 4 mm x 1 mm), so they are unobtrusive and thermally responsive. This makes them great for measuring small or dynamic point heat sources. Each RTD is pre-soldered to a custom silicone ribbon cable harness.

The silicone ribbon cable used in the RTD sensor cable harness is remarkable. Early prototypes of SenseTemp used traditional PVC ribbon cable between the PCB and the RTD elements. I was unhappy with PVC’s poor abrasion resistance and temperature rating (typically capped at 105°C and some temperature tests have an ambient of 70°C to 85°C.) I then built some harnesses with Fluorinated-Ethylene-Propylene (FEP) jacketing rated to 200°C, but found FEP cables to be far too rigid for easy instrumentation of PCBs.

The project is live on www.crowdsupply.com and has 29 days to go. Pledges start from $75 for a SenseTemp board.

LoStik – Open source USB LoRa® device


With LoStik you can easily connect to LoRa networks in Open source way! Get connected and take advantage of the growing IoT network.

LoStik by Third Venture is an affordable, easy to use, LoRaWAN™ compatible device. It lets IoT (Internet of Things) integrators, network testers, and hobbyists get connected to LoRa® networks faster, diagnose network issues more easily, and build new and exciting connected devices.

Overview

LoRa® technology is one of the leading wireless technologies powering the emerging Internet of Things. It is used in tons of cool technologies such as automatic meter reading, smart parking, and even livestock tracking. It has the unique ability to send packets over fairly long distances using minimal power (We’re talking kilometers!). LoRa® technology is perfect for devices that are located far away and need to send small amounts of data.

Unfortunately, configuring and deploying these devices can be more challenging than it needs to be. Setting up and testing new networks can also be tiresome and complex. That’s where our device comes in.

Key Features

  • Works with any PC, Raspberry Pi, or BeagleBone
  • Simple ASCII interface
  • Backpack friendly (compare to a dev boards and jumper wires)
  • Supports Packet mode LoRa® (packet mode) or LoRaWAN™
  • Compatible with The Things Network
  • Based on the RN2903/R2483 by Microchip
  • Two user-programmable LEDs
  • Open source

Specifications

  • Connectivity: USB 2.0
  • Power Consumption: 140 ma typical TX, 20 ma idle (with power LED)
  • Dimensions: 80 mm x 25 mm x 12 mm (without antenna)
  • Receiver Sensitivity: down to -146 dBm
  • TX Power: adjustable up to +18.5 dBm
  • Range: up to 15 km coverage in suburban and up to 5 km coverage in urban areas

Technical Details

Third Venture USB Dongle for LoRa® wireless networks uses a RN2903 (US) or RN2483 (EU) depending on what ITU region you are in; if you are unsure which version you need check out the frequency plan.

LoStik uses a simple ASCII interface. You can configure it and send commands over serial / COM port. Microchip provides a detailed command refference RN2903, RN2483

The radio can be used in packet mode sending packets between nodes. This provides simplex, single-channel communications. If you want to speak LoRaWAN you need a gateway or access to one. Some countries in Europe provide nation-wide coverage.

If you want to tinker with the MCU directly it is possible (but not necessary) to write your own firmware. There is an unpopulated ICSP header and the onboard MCU is a PIC18LF46K22 and Microchip supplies LoRaWAN libraries for use with MPLab.

The project is already funded on www.crowdsupply.com and you can order or build yours today.

ClearCube C3xPi Thin Client comes with Faster Raspberry Pi 3 B+

Just after the launch of their C3Pi Thin Client with Raspberry Pi 3 Model B in Aug. 2017, ClearCube has launched a “C3xPi Thin Client” follow-up to its original Raspberry Pi based thin client, which features a faster RPi 3 B+ with GbE , offers dual-band WiFi-ac and a second HDMI port for dual displays and Citrix HDX support.

According to ClearCube, the compact C3xPi Thin Client is the only low-cost, virus-proof, single-case dual monitor thin client in the market. The 0 to 35°C device is equipped with 2x HDMI 3.1 ports for dual simultaneous displays with a 1920 × 1080 video resolution. The second HDMI port is hinted to make use of the Pi’s MIPI-DSI interface since ClearCube has not released a statement on how its “patent pending” technology drives the second HDMI port.

ClearCube supports the Citrix HDX virtual desktop environment, through its Cloud Desktop OS. The Citrix HDX is enabled through the incorporation of the Citrix Workspace Hub and supports hardware-accelerated H.264 decoding for dual monitors. ClearCube says it also lowers CPU consumption by offloading video decompression from its CPU to its native hardware. At 3.75 x 2.31 x 1.25-inch, the device reveals all the ports of the RPi 3B+. One of the 4x USB ports has been replaced to accommodate the second HDMI port. RPi 3B+ enhancements available through here include the faster, 1.4GHz Broadcom BCM2837B SoC. Also available is the new Gigabit Ethernet port, which has faster performance than how it used to perform, but is limited due to its USB interface to 300Mbps.

Additional features include a 1GB LPDDR2 RAM, an 8GB microSDHC card, a 3.5mm audio jack, and a Kensington security slot. The device ships with a 12V power supply and a VESA kit for attachment to the back of a monitor. There is also a 3B+’s faster, a pre-certified wireless module with 2.4GHz/5GHz 802.11.b/g/n/ac and Bluetooth 4.2 BLE available. The C3xPi Thin Client is available for $179.95.

More information may be found at ClearCube’s C3xPi Thin Client product page.

Audio amplifier board supports Beken BK3266 Bluetooth 5.0 chip

IC station has posted a $10.59 audio amplifier board that supports Bluetooth 5.0 via Beken BK3266 Bluetooth audio chip. For the board to work, you will have to connect buttons, a microphone and 10W or 15W speakers. The hardware setup has to be completed with a power source and an optional input audio signal. After setting it up, the board is ready to be paired with a Bluetooth device. A USB can be connected to the TTL debug board to configure the board over UART.

The board is suitable for a wide range of uses, like a DIY speaker, voice intelligent control, Bluetooth signal conversion, stereo Bluetooth speaker or headset, Bluetooth hands-free calling, Bluetooth control, to mention a few. The “Bluetooth 5 enables serial port interface to change name and password, a button to turn off or boot, serial port interface to change the tone volume, support call off, power on, maximum volume”, which don’t seem specifically related to BT 5.0. Version 5.0 supports a longer range of about 10m and this does not utilize its long-range feature. According to Bluetooth 5 specifications, Bluetooth 5 has the capability to carry out periodic data to be broadcasted, enabling chain packets and deterministic advertising.

This enables the scanners to function together and for each packet to contain different synchronization to scan for packets with the subset of the whole data set and schedule of the advertising device. This feature gives room for a more power-efficient way to perform scanning and might create room for new applications of Bluetooth LE in connection-less scenarios, such as audio applications. The advertising extensions feature is laying the groundwork for next-generation beacons, advanced audio applications, to mention just a few.

Bluetooth 5 also introduced a new channel selection algorithm called channel selection algorithm #2. Frequency hopping is pseudo-random and the distinct sequences which are possible are very large. If Bluetooth 5 LE is to be used for audio applications, one can expect a longer battery life due to the lower power consumption. This means that audio cuts are less likely to occur, and the improvement carried out on the Bluetooth 5 advertising extensions should reduce re-connection time.

It is unknown if BK3266 supports any of those “features” listed on the Bluetooth 5 specifications and that’s because Beken hasn’t updated their website with any info about the new chip, and data sheet is not available online.

Specifications and features listed for the board include:

  • Bluetooth 5.0 Connectivity
  • Up to 6 paired devices
  • Bluetooth protocols – HFPV1.7, A2DPV1.2, AVRCPV1.5, AVCTPV1.2, AVDTPV1.2 Range up to 10 meters
  • Transmission Power – Class2, 4dbm
  • Sensitivity – -81dBm < 0.1% BER
  • Frequency Range – 2.402GHz – 2.480GHz
  • Audio- MP3/WMA/WAV music format
  • Speaker Impedance – 4 to 8 Ohm
  • Output Power –  2x15W at 16V/4A, 2x10W at 12V/4A
  • Audio signal to noise ratio >75dB
  • Configuration via UART interface
  • Misc – On/off button
  • Supply Voltage – 8.0 to 22.0 V DC
  • Power Consumption –  Working current <=20mA; standby current <500uA
  • Dimensions – 71 x 53 x 9.4 mm
  • Temperature Range -20℃ to 85℃
  • Relative Humidity– 0% to 95%

The board can be purchased on ICStation and is currently on sale for $7.39.

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