View Part Footprints in CIS Explorer

Worried your power rails might misbehave after your board is built? IR drop, ground bounce, and power integrity issues often go unnoticed until the prototype stage, leading to wasted hardware cycles and delayed schedules. 👉 https://ow.ly/Ku4f50Ymgr6 Some teams try to patch these issues post-layout or rely on decoupling caps and wider pours to save the day, but hidden problems often surface too late. In this blog, discover how Allegro X enables in-design power integrity checks before tapeout. With real-time analysis integrated into your layout flow, you can catch and resolve power issues early, saving time, money, and headaches. #PCBDesign #PowerIntegrity #AllegroX #EDA

Worried your power rails might misbehave after your board is built? IR drop, ground bounce, and power integrity issues often go unnoticed until the prototype stage, leading to wasted hardware cycles and delayed schedules. 👉 https://ow.ly/ITpB50YlMJk Some teams try to patch these issues post-layout or rely on decoupling caps and wider pours to save the day, but hidden problems often surface too late. In this blog, discover how Allegro X enables in-design power integrity checks before tapeout. With real-time analysis integrated into your layout flow, you can catch and resolve power issues early, saving time, money, and headaches. #PCBDesign #PowerIntegrity #AllegroX #EDA

Worried your power rails might misbehave after your board is built? IR drop, ground bounce, and power integrity issues often go unnoticed until the prototype stage, leading to wasted hardware cycles and delayed schedules. 👉 https://ow.ly/kgse50Ym0Po Some teams try to patch these issues post-layout or rely on decoupling caps and wider pours to save the day, but hidden problems often surface too late. In this blog, discover how Allegro X enables in-design power integrity checks before tapeout. With real-time analysis integrated into your layout flow, you can catch and resolve power issues early, saving time, money, and headaches. #PCBDesign #PowerIntegrity #AllegroX #EDA

Worried your power rails might misbehave after your board is built? IR drop, ground bounce, and power integrity issues often go unnoticed until the prototype stage, leading to wasted hardware cycles and delayed schedules. 👉 https://ow.ly/xLxn50YlSBU Some teams try to patch these issues post-layout or rely on decoupling caps and wider pours to save the day, but hidden problems often surface too late. In this blog, discover how Allegro X enables in-design power integrity checks before tapeout. With real-time analysis integrated into your layout flow, you can catch and resolve power issues early, saving time, money, and headaches. #PCBDesign #PowerIntegrity #AllegroX #EDA

Worried your power rails might misbehave after your board is built? IR drop, ground bounce, and power integrity issues often go unnoticed until the prototype stage, leading to wasted hardware cycles and delayed schedules. 👉 https://ow.ly/VTZ250YlL54 Some teams try to patch these issues post-layout or rely on decoupling caps and wider pours to save the day, but hidden problems often surface too late. In this blog, discover how Allegro X enables in-design power integrity checks before tapeout. With real-time analysis integrated into your layout flow, you can catch and resolve power issues early, saving time, money, and headaches. #PCBDesign #PowerIntegrity #AllegroX #EDA

Efficient escape routing is critical for high-density package designs, ensuring clear signal paths and reducing complexity. In this post, I’ll show how to create a component from die escape routing in Allegro X Advanced Package Designer and import it into Integrity System Planner for dynamic connectivity optimization. Read this blog to learn more: https://ow.ly/ZjUo50XY9Xv #DieEscapeRouting #SystemPlanning #PackageDesign #PCBDesign #AllegroX #AdvancedPackaging #SignalIntegrity #ConnectivityOptimization #ICDesign #CadenceTools #training #training_bytese

Viewing footprints while working on a schematic no longer requires to open the .dra file in Allegro X. You can see the footprint of the parts present in your database in the Footprint window of CIS Explorer. Here's how: https://ow.ly/b4YA50Y1Xfe #PCBDesign #AllegroX

After the final whistle: print that’s built for its next use ♻️ Graphics are often put up in a rushed way and then end up in skips. This makes it difficult to reuse them. The solution is to design for disassembly and label for sorting, with take-back logistics in place. This is an opportunity for PSPs and converters to transition from substrate-based quotes to outcomes, such as faster de-rigs, cleaner material streams and clearer reporting. The building blocks are simple: modular hardware, mono-material options, discrete markings, trackable items and data on material reuse. Swipe for a checklist to add to briefs/RFI. Which spec would you change to make end-of-life easier? Material, marking or hardware?

We’re excited to announce the release of AnalogStudio version 4.0.0. This update brings a fully improved schematic move tool with a redesigned layout that makes editing faster and more intuitive, along with overall workflow refinements across the platform. Version 4.0.0 also introduces a generated GDSII file preview with a 3D view, helping teams better visualize designs before tape-out. This release focuses on clarity, efficiency, and confidence throughout the analog design process. Download: https://lnkd.in/gMGZvZN7 #AnalogStudio #EDA #AnalogDesign #ICDesign #Semiconductor #VLSI #ChipDesign #GDSII #DesignTools #Engineering

DAY 28: How Enclosure Design Breaks RF Performance 📡📦 One of the most painful moments in RF design is this: the board works perfectly on the bench… great signal strength, fast registration, stable communication and then you close the enclosure and everything falls apart. Range drops. Networks take longer to connect. RSSI fluctuates. Data becomes unreliable. Nothing changed electrically. But everything changed electromagnetically. Here’s how enclosure design silently breaks RF performance: 1. Enclosures Detune Antennas Antennas are tuned assuming a specific environment — mostly air. When you add an enclosure: plastic changes the dielectric constant metal reflects and absorbs RF batteries and screws add parasitic elements The antenna’s resonant frequency shifts away from the intended band (900/1800 MHz, 2.4 GHz, etc.). A perfectly tuned antenna on the PCB becomes a badly mismatched antenna in the product. 2. Metal Enclosures Block and Reflect RF Energy Metal cases don’t just block RF — they reshape it. They: reflect RF waves back into the board create standing waves form resonant cavities cause nulls and hotspots The antenna may radiate strongly in one direction and almost nothing in another. Your range becomes unpredictable. 3. Ground Reference Changes Inside the Case Once the PCB is mounted: the enclosure can act as a new ground plane grounding points multiply return paths shift This alters: antenna impedance RF current paths matching networks Ground is part of the antenna system — change it, and RF performance changes. 4. Cables and Batteries Become RF Structures Inside an enclosure: battery packs ribbon cables power wires all sit closer to the antenna than on the bench. These conductors: absorb RF energy re-radiate noise detune the antenna dynamically Even slight movement during handling can change performance. 5. Enclosures Create RF Cavities A closed case can behave like a resonant RF cavity. At certain frequencies: RF energy builds up noise couples back into the RF front-end sensitivity drops EMI increases This is why RF failures often appear only after final assembly. ✨ Big Takeaway In RF design, the enclosure is not packaging — it is part of the RF system. If you don’t design the enclosure with RF in mind, it will redesign your antenna for you. Successful RF products are tuned with the enclosure closed, not on an open bench. #RFDesign #AntennaDesign #GSM #WirelessCommunication #PCBDesign #HardwareDesign #ElectronicsEngineering #EMI #EnclosureDesign #LearningInPublic