https://community.element14.com/products/manufacturers/ en-USTelligent Community 12https://community.element14.com/learn/events/c/e/1752Sun, 26 Apr 2026 13:00:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:1d301911-e50b-4b31-8e05-9dc34ead3eb1m.arguelloDiscover how to unlock the full potential of Data Acquisition (DAQ) using a no-code approach, demonstrated in this webinar using a motor and fan test combined with LabVIEW and NI software tools. Whether you’re validating new designs or looking to improve your workflow, this session is designed to give attendees the knowledge to build robust, repeatable tests using simple configuration tools. This webinar will show you how to quickly set up reliability tests, automate start stop cycles, measure motor efficiency, and evaluate fan airflow, without writing any code. Join us for an expert-led session covering: An overview of no-code testing with DAQ DAQ testing essentials A live demo: Building a fan and motor test without coding Stay until the end for a live Q&A session where you can have all your questions on data acquisition, no-code, LabVIEW and more, answered by the session's expert host: Jelmer van den Dries, Principal Field Application Engineer at Emerson.nino-codedata acquisitionemersondaqno codelabviewhttps://community.element14.com/products/manufacturers/microchip/b/blog/posts/pic16f13276-pic18-q35-programmable-hardware-logic-no-cpld-required--new-from-microchipWed, 22 Apr 2026 22:26:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:754d39e3-ac14-4326-9cb1-fc1aee235427Microchip_MCUWhat if you didn't need a CPLD or FPGA for programmable logic? What if your MCU could do it all- no external components, smaller BOM, less board space, and still give you everything a CPLD would? Introducing the PIC16F132 and PIC18-Q35- the latest additions to Microchip's growing Configurable Logic Block (CLB) product portfolio ; each with an on-chip CLB peripheral that runs fully independent of the CPU, so response times are deterministic and fixed, no jitter, no variability. For automotive, industrial, and safety-critical designs where timing guarantees are non-negotiable, that matters. And unlike FPGA toolchains, it's fast to work with: MCC's graphical CLB synthesizer lets you configure, simulate, and debug logic in minutes, with no HDL experience required. Eliminate that external component, shrink your BOM, reclaim that board space, and you haven't given anything up. If you used PIC16F13145 last year, you already know where this is going. The PIC16F132 product family- Embedded Innovation with Configurable Logic and Enhanced Security The entry point. It's an 8- to 40-pin PIC16 with 32 CLB logic elements - automotive-ready, cost-effective, and low-power. It's built for designs where you need real hardware logic capability without the overhead of a standalone CPLD. Pair it with the 10-bit ADC with computation, 10-bit DAC, hardware CVD touch sensing, dual 16-bit PWMs, 2× comparators SMBus-compatible I²C/SPI and dual EUSARTs Up to 28 KB Flash, 2 KB SRAM, 256 B EEPROM Packages: SOIC, TSSOP, PDIP, SSOP, VQFN, TQFP and you have a surprisingly capable chip in a small, affordable package. Security is handled too PDID permanently disables the programming and debug interfaces after deployment, locking down your firmware from the hardware level up. PIC18-Q35- Maximum Flexibility for Custom Embedded Solutions This is where the CLB story gets serious. 128 logic elements . 64 MHz PIC18 core . Multi-Voltage I/O from 1.62V to 5.5V eliminates external level shifters for mixed-voltage designs. 4x DMA controllers handle data movement without touching the CPU. UART with LIN and DMX protocol support, Zero-Cross Detect, and the same PDID security lockdown as the F132- all in 28- to 48-pin packages. Built for industrial, automotive, and security-sensitive environments that demand both performance and flexibility on a single chip. Both families are fully supported in MPLAB X IDE and VS Code . MCC's CLB synthesizer gives you a graphical drag-and-drop interface, Verilog for advanced users, built-in simulation, timing analysis, and hardware debug pins. No HDL experience needed -you can have custom logic running in minutes. Resources: Learn more about- PIC16F13145 / PIC16F132 / PIC18Q35 Check out products on Farnell- PIC16F132 Start developing with PIC16F132 Curiosity Nano Development Board PIC18FQ35 Family Data sheets- PIC16F132 community.element14.com/.../PIC16F13276_2D00_Product_2D00_Family_2D00_Sell_2D00_Sheet_2D00_DS00006301-_2800_1_2900_.pdf community.element14.com/.../PIC18_2D00_Q35_2D00_Product_2D00_Family_2D00_DS00006343.pdf PIC18Q35https://community.element14.com/products/manufacturers/ni/b/blog/posts/there-s-still-time-to-register-for-our-april-28-webinarMon, 20 Apr 2026 22:50:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:2ca1d84a-d7fa-4ea9-9a5b-f0cb9b9d6d64m.arguelloLearn how to unlock the full potential of Data Acquisition (DAQ) using a no-code approach —with a live demo of a motor and fan test using LabVIEW and NI tools. Discover how to set up reliable, repeatable tests, automate cycles, and evaluate motor efficiency and fan airflow— without writing any code . Stay for a live Q&A with Jelmer van den Dries , Principal Field Application Engineer at Emerson. Register now before it’s too late!nidata acquisitioncompact daqnational instrumentsautomated testdaqCompactDAQhttps://community.element14.com/products/manufacturers/rohde-schwarz/f/forum/56865/my-fsh4-doesn-t-sync-its-internal-frequency-reference-to-gpsMon, 20 Apr 2026 02:55:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:ccd52ea5-d5a8-40a2-bb90-ce5de6576f11Obar94Hello, I’ve used my FSH4 spectrum analyzer (3.6 GHz version) for many years. I’ve found that while the supplied Garmin GPS accessory for the FSH4 allows it to access GPS satellite information, the FSH4 does not use it to synchronize its internal frequency reference with the information provided by the GPS signal (as verified using a second spectrum analyzer with its own GPS-locked external reference). Consequently, I’ve always had to use an external 10 MHz reference signal input to the FSH4's accessory BNC connector whenever I needed accurate frequency calibration with this instrument. Without doing this, the instrument internal frequency accuracy is only good for a little better than about 1 ppm. This is strange, because the FSH4 manual states that the instrument is supposed to sync frequency with the GPS system when the antenna is connected, it is even supposed to remember the correction parameters for a day or so after the antenna is disconnected. Could someone please assist me as to whether I may not have configured the instrument settings correctly? I am a retired electrical engineer. Thank you for any suggestions!https://community.element14.com/products/manufacturers/digilent/b/blog/posts/introducing-the-adp2440-and-adp2450Fri, 27 Mar 2026 12:43:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:eb80d4df-7d02-49fa-99a3-d116029badbabogdaniliesHigh-Speed, High-Bandwidth Mixed Signal Oscilloscopes for Modern Engineering Workflows The Analog Discovery Pro 2400 Series expands Digilent’s professional test and measurement lineup with a pair of USB-based mixed signal oscilloscopes designed for engineers who require higher bandwidth, deeper memory, and tight integration between analog and digital analysis, without moving to a full benchtop instrument. The series consists of two models: Analog Discovery Pro 2440 (ADP2440) - Four-channel, 12-bit resolution oscilloscope with 100+ MHz bandwidth and up to 600 MS/s sampling Analog Discovery Pro 2450 (ADP2450) - Four-channel, 8-bit resolution oscilloscope with 200+ MHz bandwidth and up to 1 GS/s sampling Both devices share the same hardware platform, software environment, and I/O architecture, allowing educators and engineers to select the performance profile that best fits their application while maintaining a consistent lab experience. Designed for Mixed-Signal Measurement Modern engineering systems rarely exist in purely analog or purely digital domains. The ADP‑2400 Series addresses this by integrating: Four front-panel BNC analog inputs Sixteen bidirectional digital I/O channels An integrated arbitrary waveform generator External trigger I/O Deep, freely allocatable memory This combination enables simultaneous analog and digital acquisition, protocol analysis, signal generation, and long-duration capture within a single instrument. Both models support referenced single-ended inputs with selectable 50 ohm or 1 megaohm input impedance, input ranges up to ±25 V, and ten hardware input ranges that allow users to balance resolution and dynamic range depending on the measurement task. Analog Performance Options The key distinction within the ADP‑2400 Series is how each model balances bandwidth and vertical resolution. ADP2440: Resolution-Oriented Measurements 12-bit vertical resolution 100+ MHz analog bandwidth Up to 600 MS/s interleaved sample rate This configuration is well suited for applications where amplitude accuracy, noise performance, and signal fidelity are priorities. ADP2450: Bandwidth-Oriented Measurements 8-bit vertical resolution 200+ MHz analog bandwidth Up to 1 GS/s interleaved sample rate This model targets higher-speed digital interfaces, fast edge characterization, and applications that benefit from increased bandwidth. Both devices support deep buffer memory, complex triggering modes including edge, pulse, glitch, timeout, transition, and window triggers, and advanced visualization tools such as FFT, persistence, eye diagrams, histograms, and custom math functions. Integrated Arbitrary Waveform Generator Each ADP‑2400 Series device includes a single-channel arbitrary waveform generator offering: 14-bit resolution ±5 V output range Greater than 15 MHz bandwidth Sample rates up to 125 MS/s Standard waveforms, advanced modulation modes, frequency and amplitude sweeps, and custom waveforms are supported. The waveform generator integrates directly with oscilloscope, network analyzer, and impedance analyzer instruments within WaveForms, enabling closed-loop measurement and characterization workflows without additional hardware. Digital I/O and Protocol Support The sixteen digital I/O channels are internally clocked and configurable for both acquisition and generation tasks. Key capabilities include: Internally scaled sampling rates up to 1.2 GS/s Configurable pull resistors and drive strength Advanced digital triggering Pattern generation and digital stimulus output Supported protocol analysis and generation includes SPI, I2C, UART, CAN, I2S, LIN, SWD, JTAG, HDMI CEC, SAE J1850, and additional industry-standard interfaces. These capabilities make the ADP‑2400 Series appropriate for embedded systems education, capstone projects, and early-stage product development. Dual Mode Operation The ADP‑2400 Series supports Dual Mode operation, allowing two devices to be synchronized and operated as a single system. In this configuration, users gain access to: Eight analog input channels Thirty-two digital I/O channels Two waveform generator outputs Automatic phase adjustment and cross-triggering allow multiple instruments to operate together without external synchronization hardware, which is particularly useful in advanced teaching labs and scalable instructional environments. WaveForms Software and SDK All device functionality is accessed through Digilent’s WaveForms software, available for Windows, macOS, and Linux. WaveForms provides a unified user interface that reflects traditional benchtop workflows while supporting simultaneous operation of multiple instruments. For automation and customization, users can employ the integrated scripting environment or leverage the WaveForms SDK to create custom applications using C, C++, Python, C#, and other supported languages. This enables repeatable testing, hardware-in-the-loop setups, and integration with external systems. Physical Design and Deployment The ADP‑2400 Series is housed in a metal enclosure designed for both desktop and mounted use. Hardware features include: Front-panel BNC connections for analog inputs and waveform output Rear-panel BNC external trigger connections USB Type-C connectivity with USB 3.x data rates DIN rail mounting support External power supply included This form factor supports use in teaching labs, development environments, and semi-permanent test setups. The Digilent Product Family Within the Digilent test and measurement portfolio, the ADP‑2400 Series sits between Discovery Essentials devices and higher-bandwidth Analog Discovery Pro 5000 Series instruments. It is intended for users who require more bandwidth, memory depth, and I/O capability than student-focused tools provide, while maintaining the flexibility of a USB-based platform. For academic programs, this positions the ADP‑2400 Series well for upper-division laboratories and project-based courses. For practicing engineers, it offers a compact instrument aligned with professional measurement workflows.https://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifier/234617Thu, 26 Mar 2026 08:47:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:6da47e43-d0ca-4b13-a55e-8028470303dajc2048What is the "issue"? The datasheet says the pins labelled as GND should be connected to RF/DC ground. It doesn't say they're all connected inside the device. The resistance you measure between 6 and 7 is the bias for the FET. You'd expect to see it there. Presumably you've connected a decoupling capacitor to 7 and not a GND in your circuit. If you've connected a ground to 7, you'll get whatever the FET current is with the gate at 0V, instead of the 100mA or so at their dc bias point (don't leave it running like that - I doubt the package can manage the dissipation: it probably gets fairly warm even at the 100mA). 2, 4, and 16 are dummies that you can use to run the surface ground into the paddle area - 2 and 4 allow you to bring the transmission line all the way in without a discontinuity. 16 is to run a ground in alongside the vdd to improve the decoupling performance (the return current has to get across to 6). The designer is just steering you as to how they thought the layout would work. The paddle will be the substrate connection, which you'll probably want to heatsink with vias down to the plane. I would guess the input termination goes down to the paddle, that would seem to make most sense, but I'm not very familiar with this kind of stuff - it might go to GND at 6. The chip designer seems to have intended the copper under the paddle to be the common point between input and output. What's interesting is that the 3rd party who designed the evaluation board have done the layout in a different way, isolating the paddle on the surface layer and using the plane for everything. I would assume they know what they're doing, so it would be interesting to know the pros and cons of the two approaches. Disclaimer: I've never done any RF, so decide for yourself if this makes any sense. I do have vague memories of how a FET works, though (retired engineer!).https://community.element14.com/products/manufacturers/bridgetek/b/blog/posts/transforming-user-interfaces-with-bridgetek-s-ft813-embedded-video-engineThu, 26 Mar 2026 05:35:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:030ac1c4-1f29-41a2-9067-95162cf09416BRT-MarketingElevating Human–Machine Interaction At Bridgetek, we specialize in developing innovative Human–Machine Interface (HMI) solutions that redefine usability and functionality. Our Embedded Video Engine (EVE) technology empowers designers to add rich, graphical touch interfaces to their products—whether updating an existing design or launching something entirely new. A modern HMI not only improves user experience but also future‑proofs products and helps them stand out in competitive markets. The Challenge Traditionally, adding advanced graphics meant redesigning around complex MCUs with integrated graphics. This approach often increases cost, complexity, and development time. But what if you could keep your preferred MCU—optimized for your product’s core functions—and still deliver a stunning, fully featured interface? The FT813 Solution The FT813 Embedded Video Engine makes this possible. With the FT813 , you can seamlessly add graphics, touch, and audio to any MCU, enabling flexibility without compromise. Key capabilities include: Rich 24bit RGB output for vibrant home screens, custom icons, and eye-catching backgrounds. Capacitive multi‑touch support (up to 5 points) for intuitive, bespoke controls such as sliders, rotary dials, and color pickers. Innovative touch engine with tagging and tracking, for simple touch implementation with optional interrupt to the MCU. Integrated audio engine including over 50 ready-to-use sounds, with adjustable volume, played via a simple register write. Playback of custom sounds is also supported. Screen rotation sets display orientation (graphics & touch) via a simple command Extensive image support including raw, PNG, and JPEG formats, plus transparency and alpha blending for enhanced visuals. Advanced graphics effects such as scaling, rotation, blending, and shape manipulation without complex host MCU mathematics. Custom font support for multi‑language interfaces, large readouts and unique branding. PWM backlight output for display brightness control Rapid Development with ME813 Module To accelerate adoption, Bridgetek offers the ME813 module , enabling quick setup via SPI, Quad SPI, or USB adapters. Developers can connect their MCU or even a PC (via a USB-QSPI/SPI adapter such as our MM4222-QSPI ) to start building interfaces immediately. Real-World Applications The FT813’s versatility makes it ideal to enhance a wide range of products, including: Payment terminals and access control systems Smart appliances such as coffee machines and ovens Networking and server equipment HVAC and energy metering solutions Personal medical devices Smart home systems and desktop displays Conclusion With the FT813, Bridgetek delivers maximum user experience with minimal redesign effort. By combining graphics, audio, and touch in one chip, the FT813 empowers developers to create engaging, intuitive interfaces without sacrificing their MCU choice.hmigraphical displaybridgetekembedded video engineevehttps://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifier/234614Thu, 26 Mar 2026 02:56:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:30648d1d-7d67-4f24-a932-47fa352766a6alphaiseThe issue is consistent both before and after applying power. The parts were purchased from Element14 (Singapore), and they had sent over replacement units after I alerted them of the issue - but the shorting is still present (i.e., no change). I used the continuity test on various multimeters for measurements. The resistance between pin 15 (Vdd) and 6 (GND) is about 8.1 Ω, and 2.9 Ω between pin 15 and 7 (ACG).https://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifier/234613Thu, 26 Mar 2026 02:48:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:2d7c80d8-ac39-4c52-9d9c-c3eedf357ea5alphaiseYes, I checked against the chamfered edge on the ground paddle as well.https://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifier/234611Wed, 25 Mar 2026 18:47:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:9eff974c-8a5f-4841-a5b0-55e8ee8125a7Jan CumpsDid you use the dot as pin1 indicator?https://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifier/234598Wed, 25 Mar 2026 09:04:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:426778e5-433d-448e-a0eb-568b62e8e92fmichaelkellettIs this before or after you had applied power ? Where did you buy the parts ? How are you measuring them - when you say "shorted" what do you mean - is it the same resistance in either polarity, what is that resistance. MKhttps://community.element14.com/products/manufacturers/analog-devices/f/forum/56794/support-required-for-hmc356lp3etr-low-noise-amplifierWed, 25 Mar 2026 07:33:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:d77b5146-25da-445a-93ae-e8de3dd8eb33alphaiseDuring probing of the IC, we observed that pins 6 (GND) and 7 (ACG) are shorted together, and are also shorted to pin 15 (Vdd). However, the other GND pins (ground paddle, pins 2, 4, and 16) do not appear to be shorted together. This issue was observed consistently in 2 units that were tested. For reference, I have attached the pinout diagram and a top-view image of the IC.https://community.element14.com/products/manufacturers/ni/b/blog/posts/you-re-invited-building-reliable-repeatable-tests-with-ni-daq-using-no-code-webinarMon, 16 Mar 2026 18:41:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:ba86a19a-14c2-41f4-99c0-463f3a8cdba7m.arguelloDiscover how to unlock the full potential of Data Acquisition (DAQ) using a no‑code approach in this expert‑led webinar from the element14 Community. In this session, you’ll see how easy it can be to build robust, repeatable tests using simple configuration tools—no programming required. The webinar features a practical demonstration using a motor and fan test , combined with LabVIEW and NI software tools , to show how no‑code testing works in real-world scenarios. What you’ll learn: An overview of no‑code testing with NI DAQ DAQ testing essentials for reliable measurements Live demo: Building a fan and motor test without writing any code How to: Set up reliability tests quickly Automate start/stop cycles Measure motor efficiency Evaluate fan airflow Whether you’re validating new designs or looking to streamline your test workflow, this session is designed to give you practical, actionable takeaways. ️ Presented by: Jelmer van den Dries , Principal Field Application Engineer at Emerson ️ Stay until the end for a live Q&A , where you can ask your questions about DAQ, no‑code testing, LabVIEW, and more. Register now!no code daqnidata acquisitioncompact daqtest and measurementdaqlabviewCompactDAQhttps://community.element14.com/products/manufacturers/microchip/b/blog/posts/introducing-the-pic32cm-pl10--low-power-touch-focused-32-bit-arm-cortex--m0-with-a-clear-path-from-avrThu, 12 Mar 2026 22:24:00 GMT93d5dcb4-84c2-446f-b2cb-99731719e767:58545d0c-d73a-41c0-b4d0-912a9a03797cMicrochip_MCUMicrochip Technology recently launched the PIC32CM PL10, a 32-bit Arm® Cortex®-M0+ MCU making it easier to make the migration from 8-bit AVR feel a lot easier. Pin compatible with our AVR Dx/Ex family, 5V capable, and carrying over the peripherals you already know- MVIO, CCL, EVSYS- it's built so you don't have to redesign your power architecture or relearn your peripheral toolkit to get 32-bit performance. Let's break down what's new and what carries over. The AVR Migration Story If you're running AVR Dx/Ex today, with a little effort, PIC32CMPL10 will allow your existing board layout to achieve migration. 5V logic has better noise margins than 3.3V. In industrial environments with motors, relays, or long cable runs, that extra headroom means fewer spurious glitches and more robust signal integrity. Lots of existing industrial and appliance designs run on 5V buses, sensors, and actuators. If your MCU is 3.3V-only, you're adding level shifters everywhere, which means more BOM cost, more board space, and more failure points. Moving to most 32-bit parts means redesigning around 3.3V. The PL10 removes that barrier. You get 32-bit performance without touching your power architecture. The peripherals you already know carry straight over: MVIO for mixed-voltage I/O, CCL (Configurable Custom Logic) for hardware glue logic, and EVSYS (Event System) for peripheral-to-peripheral signaling without CPU involvement. The learning curve is about what's new, not relearning what you already have. On-Chip Capacitive Touch- No External Controller Needed The integrated Peripheral Touch Controller (PTC) handles buttons, sliders, wheels, and multi-element touch layouts directly on the MCU - up to 29 channels, no external touch IC, nothing extra on the BOM. For real-world reliability we built in Driven Shield+ , which actively drives adjacent electrodes to stabilize the touch signal under moisture or electrical noise.. Touch surfaces are configured through our touch library - you're defining behavior, not hand-tuning acquisition registers. Peripheral-Driven Power Architecture Two features here that work together really well: Event System - peripherals trigger each other in hardware, no CPU involved. A timer can kick off a periodic ADC conversion with zero firmware overhead. Fully deterministic. Sleepwalking - the PTC and ADC stay active while the core is in standby, only waking the CPU when a threshold is crossed or a touch is detected. Routine sensing never has to involve the processor at all. The result: low average current even in applications that need to stay responsive Wide Voltage Range + MVIO The PL10 runs from 1.8V to 5.5V , and Multi-Voltage I/O (MVIO) lets one I/O bank run at a different voltage from the core. Interface with 5V legacy peripherals or 1.8V sensors without adding level shifters. Useful in mixed-voltage systems where you'd otherwise be adding components just to bridge rails. The 12-bit ADC (up to 800 ksps) also includes a built-in low-pass filter and internal techniques for cleaner, more consistent measurements- feeding both touch acquisition and general-purpose analog sensing. Familiar Peripherals, Modern Dev Environment Alongside the touch and power features, you get SERCOM interfaces, timers, and configurable logic- the usual suspects. Existing design patterns carry over without surprises. Development is supported in MPLAB X IDE and VS Code with MPLAB extensions . Code examples and app notes are available through MPLAB Discover. G et Your Hands On It Grab the Curiosity Nano on Farnell The PIC32CM PL10 Curiosity Nano (EV10P22A) is the fastest way to start evaluating. It's got: On-board debugger with virtual serial port over USB-C Adjustable target voltage (1.8–5.1V) User LED, mechanical switch, and an on-board touch button ready to go Curiosity Nano edge connector- breadboard compatible, castellated edges for surface mounting What are your thoughts- what is the most compelling feature on the PIC32CMPL10? Let us know in comments!