TiePie engineering WiFiScope WS6 DIFF and WiFiScope WS4 DIFF oscilloscopes

TiePie engineering has introduced two new members of the powerful high resolution WiFiScope series oscilloscopes, the WiFiScope WS6 DIFF and WiFiScope WS4 DIFF.

These new differential WiFi oscilloscopes ar eevery day oscilloscopes built by engineers for engineers and can be used via an ethernet connection (LAN, WiFi or WAN) but also still with a USB 2.0 / 3.0 connection. The built-in battery gives the WiFiScope the possibility to perform fully wireless differential measurements. Measurements can then be performed completely galvanically isolated, and over long distances. This wireless PC based data acquisition instrument offers the user more possibilities for measurement applications.

With a WAN connection, world wide differential measurements can be performed. Specific knowledge on networks is not required. The Multi Channel software gives an overview of the available USB instruments and network instruments. Simply tick the instrument and measuring can start.

The differential WiFi oscilloscope has the following advantages:

  • fully wireless differential measurements via WiFi are performed (galvanically isolated) because of the built-in battery
  • mobile differential measurements are possible, e.g. on transport systems and moving installations
  • LAN and WAN data acquisition is available for long distance differential measurements
  • continuous real time high speed data acquisition over both WiFi and LAN/WAN are available
  • USB differential measurements for stand-alone applications and high speed data acquisition up to 200 MSa/s

The WiFiScope is so transparent that it appears that the ethernet connected instrument is connected directly to the computer. All hardware and software functions of the oscilloscope, spectrum analyzer, data logger and voltmeter remain available via the network. Specific network knowledge is not required.

Again the TiePie engineering motto applies: Plug in and measure!

To reduce PC-based data acquisition installation costs and increase flexibility, WiFi and LAN / WAN measuring instruments are the solution. Differential measurement applications that were previously not possible, for example long-distance measurements, measurements at unsafe or noisy places, measurements at a moving installation or reading instruments at different places are now available. With the new differential WiFi oscilloscopes from TiePie engineering, reliable WiFi and LAN / WAN measurement solutions can now be obtained without compromising measurement quality.

The differential WiFi oscilloscope can now be used where previously it was difficult to place a complete measurement setup. Thanks to the WiFi connections, electrical, physical, mechanical and acoustic signals can now be measured remotely. With the WiFi oscilloscope, high speed real time continuous data acquisition rates of 5 MSamples / second can be achieved with a resolution of 8 to 16 bits and, via LAN / WAN connections, high speed real time continuous data acquisition rates of 20 MSamples / second can be achieved with a resolution of 8-16 bits. Via USB connections, high speed real time continuous data acquisition rates of 200 MSamples / second can be achieved with a resolution of 8-16 bits.

Software

Combined with the free Multi Channel oscilloscope software, the WiFiScope WS4 DIFF and WiFiScope WS6 DIFF turn your PC into an High Resolution differential Oscilloscope, Precision Spectrum analyzer, EMI Pre compliance analyzer, High Performance Multimeter, Very Fast differential Data logger and Comprehensive Protocol Analyzer. The Multi Channel oscilloscope software gives you the opportunity to share your data with everybody and lets you analyze your data without the need of an instrument. The Multi Channel oscilloscope software offers sophisticated data analysis capabilities using many user configurable data processing I/O blocks, showing the analysis results in graphs, tables and/or meter displays. Time consuming complicated instrument setups are no longer required using the unique Quick Setup system: select the measurement task you want to accomplish with just up to 4 mouse clicks from a selection dialog that gives access to over 700 different instrument Quick Setups. Each Quick Setup contains all required instrument settings, as well as example signals and background information on how to connect the instrument.

Combined with the Multi Channel oscilloscope software, the WiFiScope WS6 DIFF and WiFiScope WS4 DIFF turn your PC into an High Resolution differential Oscilloscope, Precision Spectrum analyzer, High Performance Multimeter, Very Fast differential Data logger and Comprehensive Protocol Analyzer.

A full Software Development Kit (SDK) for writing your own PC-based data acquisition software is available, as well as examples in C, C++, C#, Python, Matlab, Node.js and Visual Basic.NET. Own written data acquisition software for the Handyscope HS4 DIFF and Handyscope HS6 DIFF can be used directly for the WiFiScope WS4 DIFF and WiFiScope WS6 DIFF. Developing the software for a USB data acquisition system or a wireless high speed WiFi data acquisition system makes no difference and the developed software can be used transparently.

TiePie engineering now offers two new differential WiFi network oscilloscopes.

For full details on the new TiePie engineering differential WiFiScopes, visit www.tiepie.com/wifiscope

TiePie engineering Automotive WiFiScopes ATS610004DW-XMSG, ATS605004DW-XMS and ATS5004DW

TiePie engineering has introduced three new powerful high resolution Automotive Test Scopes with WiFi and LAN connection, the Automotive Test Scope ATS610004DW-XMSG, Automotive Test Scope ATS605004DW-XMS and Automotive Test Scope ATS5004DW. These new WiFiScopes mark a new, innovative development of TiePie engineering: the first and industry’s only WiFi connected Automotive Test Scopes with differential inputs.

The differential Automotive WiFiScopes are every day oscilloscopes for automotive engineers and can be used via an ethernet connection (LAN, WiFi or WAN) but also still with a USB 2.0 / 3.0 connection. The built-in battery gives the Automotive WiFiScope the possibility to perform fully wireless differential measurements. Measurements can then be performed completely galvanically isolated, and over long distances. This wireless PC based data acquisition instrument offers the user more possibilities for measurement applications.

With a WiFi connection, wireless measurements can be performed on a car, where the computer does not need to be right next to the car. Specific knowledge on networks is not required. The Multi Channel oscilloscope software gives an overview of the available USB instruments and network instruments. Simply tick the instrument and measuring can start.

The WiFi oscilloscope has the following advantages:

  • fully wireless differential measurements via WiFi are performed (galvanically isolated) because of the built-in battery
  • mobile differential measurements are possible, e.g. on transport systems and moving installations
  • LAN and WAN data acquisition is available for long distance differential measurements
  • continuous real time high speed data acquisition over both Wifi and LAN / WAN are available
  • USB differential measurements for stand-alone applications and high speed data acquisition up to 200 MSa/s

The differential Automotive WiFiScope is so transparent that it appears that the ethernet connected instrument is connected directly to the computer. All hardware and software functions of the oscilloscope, spectrum analyzer, data logger and voltmeter remain available via the network. Specific network knowledge is not required.

Again the TiePie engineering motto applies: Plug in and measure!

To reduce PC-based data acquisition installation costs and increase flexibility, WiFi and LAN / WAN measuring instruments are the solution. Differential measurement applications that were previously not possible, for example long-distance measurements, measurements at unsafe or noisy places, measurements at a moving installation or reading instruments at different places are now available. With the new differential automotive WiFi oscilloscopes from TiePie engineering, reliable WiFi and LAN / WAN measurement solutions can now be obtained without compromising measurement quality.

The differential automotive WiFi oscilloscope can now be used where previously it was difficult to place a complete measurement setup. Thanks to the WiFi connections, electrical, physical, mechanical and acoustic signals can now be measured remotely. Place the automotive WifiScope near to the engine bay and connect its inputs to the points you want to measure. Your computer can remain at a safe distance, connected via WiFi to the automotive WiFiScope, that operates as access point. No hassle of USB cables between the scope and the computer that limit your flexibility.

With the WiFi oscilloscope, high speed real time continuous data acquisition rates of up to 5 MSamples / second can be achieved with a resolution of 8 to 16 bits and, via LAN / WAN connections, high speed real time continuous data acquisition rates of up to 20 MSamples / second can be achieved with a resolution of 8 to 16 bits. Via USB connections, high speed real time continuous data acquisition rates of up to 200 MSamples / second can be achieved with a resolution of 8 to 16 bits.

Software

Combined with the free Multi Channel oscilloscope software, the Automotive Test Scope ATS610004DW-XMSG, Automotive Test Scope ATS605004DW-XMS and Automotive Test Scope ATS5004DW turn your PC into a High Resolution differential Oscilloscope, Precision Spectrum analyzer, High Performance Multimeter, Very Fast differential Data logger and Comprehensive Protocol Analyzer. The Multi Channel oscilloscope software gives you the opportunity to share your data with everybody and lets you analyze your data without the need of an instrument. The Multi Channel oscilloscope software offers sophisticated data analysis capabilities using many user configurable data processing I/O blocks, showing the analysis results in graphs, tables and/or meter displays.

Special automotive features are included in the software. The crankshaft signal can be turned into a detailed engine speed (rpm) graph as well as a very accurate graph showing the crank shaft angle in time. Combine that with e.g. injection and/or ignition signals and timing analysis becomes simple task. Duty cycle signals and pulse width modulated signals, e.g. used in driving valves, can be converted into graphs showing the actual duty cycle at any moment in time. General engine health is easily tested with the easy to use relative compression test functionality.

Time consuming complicated instrument setups are no longer required using the unique Quick Setup system: select the measurement task you want to accomplish with just up to 4 mouse clicks from a selection dialog that gives access to over 700 different instrument Quick Setups. Quick Setups for all common automotive sensors and actuators are included. Each Quick Setup contains all required instrument settings, as well as example signals and background information on how to connect the instrument.

TiePie engineering now offers three new rugged 4 channel Automotive WiFiScopes.

For full details on the new TiePie engineering automotive WiFiScopes, visit www.tiepie-automotive.com/automotive-oscilloscope

TS-7100 – Feature Dense Embedded Solution with Optional 2.8″ Touch Screen

A full featured, compact embedded computer with optional 2.8″ touch LCD and DIN-mountable enclosure that measures 2.4″ by 3.6″ by 1.7″. It packs in industry standard interfaces including Ethernet, USB, RS-232, RS-485, and CAN, and bunch of I/0.

Make it Smaller

Time and again at customer visits, Technologic Systems heard the same thing, “We love your single board computers, but make them smaller! They have to go inside this cabinet, and we need room for everything!” We listened. Technologic Systems is proud to introduce the TS-7100, our smallest single-board computer in an optional DIN-mountable enclosure that measures 2.4″ by 3.6″ by 1.7″, powered by the ARM iMX6 UltraLite CPU. It ships with industry-standard interfaces, including Ethernet, USB, RS-232, RS-485, and CAN. For wireless connectivity, the TS-7100 comes with WiFi and Bluetooth module, as well as a NimbeLink/Digi cellular modem and mesh network socket.

With all of these features packed into a smaller footprint, not only will the TS-7100 fit in your cabinet, but it can also help to replace other peripherals and modules to free up even more space and get more done. Combining all of these components into one small DIN mounted unit, we provide the ability to promote hot swapping in the field, limiting costly technician time and troubleshooting.

Each component on the TS-7100 has been carefully chosen to ensure reliable operation in the field and maximum product lifespan for 10+ years. The fanless design of the TS-7100 paired with the low cost enclosure is able to withstand high vibration, debris, and a wide temperature range of -40 °C to 85 °C.

TS-7100 side view of ethernet and USB ports

Additional features include:

  • NXP i.MX 6UltraLite 696 MHz ARM CPU with FPU
  • 512 MB RAM
  • 4 GB eMMC Flash Storage
  • 2 KB FRAM Storage
  • 802.11 b/g/n WiFi and Bluetooth BT4 LE Radio
  • 3″ 16-bit 240×360 Resistive Touchscreen Display
  • TS-SILO Super Capacitor Power Reserve Solution
  • Preloaded Debian 10 “Buster” Distribution, Linux Kernel v4.9
  • 1x microSD Card Socket
  • 2x 10/100 Ethernet Ports
  • 2x USB Host Ports
  • 2x Serial Ports
  • 1x RS-485 Ports
  • 1x CAN Port
  • Industrial Temperature Range (-40 °C to 85 °C)
TS-7100 angled view of enclosure

New Kid on the Block

The TS-7100 comes with a robust RoHS compliant 32 position spring clamp connector. Terminal block screws are not necessary.

  • 2x Relays with NO, NC, and Common Contacts (2 A / 220 VAC)
  • 3x Digital Inputs (0-30 VDC)
  • 3x Digital Input and Output (sinks up to 700 mA)
  • 1x Digital Output (0-48 VDC from supplied power) or …
    • … 1x Analog Input (0-50 VDC)
  • 4x ADC Inputs (0-12 VDC or 4-20 mA; 0.1% reference) or …
    • … 4x Digital Input (Dry contact compatible)

The TS-7100 supports several DIO features that are found in industrial applications like HVAC and automation control, such as relays, 4-20 mA or 0-12 VDC analog inputs, dry contact switch compatible inputs, and outputs capable of sinking 700 mA. Furthermore, digital outputs have fast electronic circuit breakers for equipment protection.

Reliable Data Storage with TS-SILO and FRAM

The TS-SILO power reserve ensures that there will never be data loss or corruption when there is unexpected interruptions in power. TS-SILO provides up to 30 seconds of operation to allow graceful system shutdown, protecting data stored on the on board eMMC. Additionally the TS-7100 integrates Ferroelectric RAM (FRAM or FeRAM ) which combines non-volatile data storage with incredibly high read/write endurance for the ultimate in reliability for heavy data logging applications.

more information: www.embeddedarm.com

Elektor Article: USB-SPDIF Interface

The circuit described here is a SPDIF output with a USB interface. It allows connecting Personal Computers, Tablets or Smartphones to Audio equipment including AV receivers, high-end stereo amplifiers or stand-alone audio DACs. It has a infrared remote control receiver that allows controlling media playback and audio volume.

The SPDIF bitstream is generated in software on the same microcontroller that also provides USB connectivity. The SPDIF output is thus a single chip solution that can be implemented with very low hardware effort but is – compared to special USB audio ICs – still flexible and “hackable”. It is even possible to build it on a small breadboard (see below figure).

The PIC32MX270 microcontroller has been chosen for this project. It has the peripherals needed for USB audio applications enough RAM to store encoded SPDIF frames. In addition, there are low pin count variants of these chips that allow for simple PCBs.

The source code can be obtained from https://github.com/kiffie/usb-spdif and used under the terms of the GPL.

read more

DIY voltage and current reference

Petteri Aimonen designed and built his own voltage and current reference:

When developing a data acquisition system, I ran into a need of having fairly accurate current reference to compare against, 0.1% accuracy or better. This is not a particularly high standard, but unable to find a suitable device in my price range, I chose to design my own.

The gold standard when it comes to calibration references is tying them to some reproducible physical behavior. For current references, that would be a Kibble balance and could achieve accuracy on the level of 0.1 ppm (i.e. 0.00001%). Obviously that is not cheap or easy to build.

DIY voltage and current reference – [Link]

Isolated Full-Duplex RS-485 Transceivers

This module is an isolated full-duplex differential line driver and receiver for TIA/EIA RS485/RS422 applications. The module is ideal for long transmission lines because the ground loop is broken to allow for a much larger common-mode voltage range. The symmetrical barrier of the device is tested to provide isolation of 2500Vrms between bus line Trans-receiver and the logic-level interface. The circuit works with a single supply 3.3V input. SN6505 Chip and Wurth Elekronics 760390015 transformer help to generate 5V DC to power up isolated circuitry. The module has been designed using ISO35 IC which is an isolated full-duplex RS485 trans-receiver, SN6505 IC used to form isolated DC-DC converter to power up the bus side of isolated circuitry of ISO35, LM1117-5V IC regulates the output of DC-DC converter and provides 5V DC. CN2 6 Pin header connector provided to power up the board and micro-controller interface, CN3 for Full-Duplex communication. CN1 is for AUX power 5V DC.

Isolated Full-Duplex RS-485 Transceivers – [Link]

FRIENDLYELEC NanoPi R2S is now available for purchase from $22

The NanoPi R2S, which was recently launched by FriendlyElec back in January of this year, was an upgrade to the NanoPi R1S. At the time of the Nano Pi R2S publication, the board wasn’t available, and there wasn’t any information about the pricing either. As of now, FriendlyElec has fully launched the NanoPi R2S and is available for purchase starting from $22.

The NanoPi R2S, just like mentioned earlier on is based on the Rockchip RK3328 processor and comes more 1G DDR4 RAM, 512MB more than the predecessor NanoPi R1S. Similar to NanoPi R1S, the board comes with two Gigabit Ethernet ports (with one deployed for WAN and the other for LAN), each capable of attaining close to 1Gbps and with OpenWRT supported off the shelf, the board can be configured as a router.

NanoPi R2S
NanoPi R2S

WiFi isn’t supported onboard but can be added through a USB dongle. FriendlyELEC recommends the use of the RTL8821CU USB dongles, which will be supported out-of-the-box by the default firmware. The board also comes with a 10-pin GPIO, which cannot be found in the NanoPi R1S board.

According to FriendlyElec, getting the new board might not be that straight forward because of the current Covid-19 pandemic.

Because of the epidemic, postal services in a lot of countries get delayed. Customers who need orders urgently need to choose DHL. EU customers who need DHL service to deliver orders need to email us before orders place.

Specifications:

  • CPU: Rockchip RK3328, Quad-core Cortex-A53
  • DDR4 RAM: 1GB
  • Network:
    • Internal 10/100/1000M Ethernet Port x 1
    • USB3.0 converted 10/100/1000M Ethernet Port x 1
  • USB2.0 Host: Type-A x1
  • MicroSD Slot x 1
  • MicroUSB: power input and USB Slave
  • Debug Serial Port: 3.3V TTL, 3-pin 2.54mm pitch connector
  • LED: LED x 3
  • KEY: KEY x 1 programmable
  • PC Size: 55.6 x 52mm
  • Power Supply: DC 5V/2A
  • Temperature measuring range: 0℃ to 80℃
  • OS/Software: U-boot,Ubuntu-Core,OpenWrt

NanoPi R2S

The NanoPi is currently out of stock, but FriendlyELEC is staking orders. An optional yellow case is provided for the board, which adds an extra $3 to the $22 board. Comparing to the NanoPi R1S, the NanoPi R2S cost over $2 more, and you get an extra 512MB of RAM, IOs, better GbE connectivity, but without onboard WiFi. More information about the product is available on the product page.

ODYSSEY – X86J4105800 Most expandable Win10 Mini PC (Linux and Arduino Core) with 8GB RAM

ODYSSEY – X864105 allows you to simply build Edge Computing applications with powerful CPU and rich communication interfaces. The ODYSSEY – X86J4105, based on Intel Celeron J4105, is a Quad-Core 1.5GHz CPU that bursts up to 2.5GHz. There is also an onboard ATSAMD21 Core, an ARM Cortex-M0+ MCU that allows you to program Arduino on the x86 platform.

ODYSSEY is a series of SBC (Single Board Computer), allowing you to build Edge Computing applications with ease. The ODYSSEY – X86J4105,  based on Intel Celeron J4105, is a Quad-Core 1.5GHz CPU that bursts up to 2.5GHz. There is also an onboard ATSAMD21 Core, an ARM Cortex-M0+ MCU that allows you to program Arduino on the x86 platform.

Starting from only $188, The ODYSSEY – X86J4105 includes all the powerful features of Mini PC such as an 8GB LPDDR4 RAM, 64GB eMMC Storage(optional), onboard Wi-Fi/BLE, Dual Gigabyte Ethernet Ports, Audio Input and Output, USB Ports, HDMI, SATA Connectors and PCIe. You can also choose the version with 64GB eMMC at $188 and the version with 64GB eMMC + Win10 Enterprise Activated at $258.

Just simply connect to a mouse, a keyboard and a monitor with the ODYSSEY – X86J4105, you will get a powerful Desktop Mini PC that can run Windows and Linux OS.

Key Feature

  • Intel® Celeron® J4105, Quad-Core 1.5-2.5GHZ
  • Dual-Band Frequency 2.5GHz/5GHz WiFi/ Bluetooth 5.0
  • Integrated Graphics: Intel® UHD Graphics 600
  • Dual Gigabit Ethernet
  • Integrated Arduino Coprocessor ATSAMD21 ARM® Cortex®-M0+
  • Raspberry Pi 40-Pin Compatible
  • 2 x M.2 PCIe (B Key and M Key)
  • Support Windows 10 & Linux OS
  • Compatible with Grove Ecosystem

Wide possibilities for applications

With ODYSSEY – X86J4105, you can build your own NAS (Network-Attached Storage), your high-performance Virtual Router, or a 4G LTE Gateway in your IoT applications.

The onboard SIM card slot makes it possible to build the 5G soft router with the extraordinary fast connection, which is very useful in applications where there is no Wi-Fi access.

There is an onboard ATSAMD21 Core, an ARM Cortex-M0+ MCU that allows you to program Arduino on the x86 platform. The Raspberry Pi compatible 40-Pin allows you to use hundreds of Pi HATs in the market. All of these features providing endless possibilities of using the ODYSSEY – X86J4105.

Start your IoT Journey with Grove System

The ODYSSEY – X86J4105 is more than just a computer, with the Arduino Co-processor onboard, it can be used to connect with sensors, gyroscope, and much more. Why don’t you start exploring your IoT journey from here! We have over 300 Grove modules and Sensors for you to choose from.

Low on resistance, High speed switching Expanded Lineup of P-channel MOSFET

Torex Semiconductor Ltd. has launched the XP231P02013R and XP232P05013R as new series of MOSFET.

XP231P02013R (-30V Withstand Voltage) and XP232P05013R (-30V Withstand Voltage) are general-purpose P-channel MOSFET with low on resistance and high speed switching. It can be used for various applications such as relay circuits and switching circuits. The gate protection diode is built-in as static protection.

Furthermore, two series are in a compact SOT-323-3A(2.1 x 1.25 x h0.95mm Height) package with contributing space saving.

more information: www.torexsemi.com

Isolated Full-Duplex RS-485 Transceivers

This module is an isolated full-duplex differential line driver and receiver for TIA/EIA RS485/RS422 applications. The module is ideal for long transmission lines because the ground loop is broken to allow for a much larger common-mode voltage range. The symmetrical barrier of the device is tested to provide isolation of 2500Vrms between bus line Trans-receiver and the logic-level interface. The circuit works with a single supply 3.3V input. SN6505 Chip and Wurth Elekronics 760390015 transformer help to generate 5V DC to power up isolated circuitry. Module has been designed using ISO35 IC which is an isolated full-duplex RS485 trans-receiver, SN6505 IC used to form isolated DC-DC converter to power up the bus side of isolated circuitry of ISO35, LM1117-5V IC regulates the output of DC-DC converter and provides 5V DC. CN2 6 Pin header connector provided to power up the board and micro-controller interface, CN3 for Full-Duplex communication. CN1 is for AUX power 5V DC.

Any cables I/O can be subjected to electrical noise transients that can cause damage to the transceiver and/or nearby sensitive circuitry if they are of sufficient magnitude and duration. This module can significantly increase protection and reduce the risk of damage to an expensive control circuit. The device can be used for applications like security systems, chemical production, factory automation, motor control circuit, networked security stations, HVAC and building automation networks.

When the driver enable pin, DE, is logic high, the differential outputs Y and Z follow the logic states at data input D. A logic high at D causes Y to turn high and Z to turn low. In this case, the differential output voltage defined as VOD = V(Y) – V (Z) is positive. When D is low, the output states reverse, Z turns high, Y becomes low, and VOD is negative. When DE is low, both outputs turn high-impedance. In this condition the logic state at D is irrelevant. The DE pin has an internal pull-down resistor to ground, thus when left open the driver is disabled (high impedance) by default. The D pin has an internal pull up resistor to VCC, thus, when left open while the driver is enabled, output Y turns high and Z turns low.

When the receiver enable pin, RE, is logic low, the receiver is enabled. When the differential input voltage defined as VID = V(A) – V(B) is positive and higher than the positive input threshold, VIT+, the receiver output, R, turns high. When VID is negative and less than the negative and lower than the negative input threshold, VIT– , the receiver output, R, turns low. If VID is between VIT+ and VIT– the output is indeterminate. When RE is logic high or left open, the receiver output is high-impedance and the magnitude and polarity of VID are irrelevant. Internal biasing of the receiver inputs causes the output to go failsafe-high when the transceiver is disconnected from the bus (open-circuit), the bus lines are shorted (short-circuit), or the bus is not actively driven (idle bus).

Features

  • Single Supply 3.3V
  • Onboard Isolated DC-DC Converter Provides 5V Output for Bus Side Circuitry
  • CN2 Header Connector for Micro-Controller Interface
  • 4 Pin Screw Terminal for Full-Duplex Communication
  • D3 Power LED
  • PCB Dimensions 36.27 x 30.35mm

Schematic

Parts List

Connections

Photos

ISO35 Datasheet

SN6505A Datasheet

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