• Res-0805-US-Template Simplified Footprint No Prop

    Res-0805-US-Template Simplified Footprint No Prop

    Chip Resistor 0805(2012 Metric) Template NO default properties #simplifiedFootprint #noProp #CommonPartsLibrary #Resistor

    ompha


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    ahmed072


  • RMCF0805FT1K00

    RMCF0805FT1K00

    1 kOhms ±1% 0.125W, 1/8W Chip Resistor 0805 (2012 Metric) Automotive AEC-Q200 Thick Film #forLedBlink

    freddyeaese


  • Res_0603-Template cUQW

    Res_0603-Template cUQW

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    mkhanahmadi


  • Res_0603-Template 17ce

    Res_0603-Template 17ce

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    malikyasir


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    enz4855


  • Res_0603-Template ao3s

    Res_0603-Template ao3s

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    zlmanuel87


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    carlosandre


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    juanhbrc5x


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film

    &


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template

    Res_0603-Template

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • Res_0603-Template 9rKR

    Res_0603-Template 9rKR

    Chip Resistor 0603 (1608 Metric) Moisture Resistant Thick Film


  • CRCW040227K4FKED

    CRCW040227K4FKED

    Standard Thick Film Chip Resistors


  • MAX1551 Reference Design

    MAX1551 Reference Design

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog

    1 Comment


  • MAX1551 Reference Design 6osx

    MAX1551 Reference Design 6osx

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog

    1 Comment


  • MAX1551 Reference Design

    MAX1551 Reference Design

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog

    1 Comment


  • Simple Op-Amp Differentiators and Integrators

    Simple Op-Amp Differentiators and Integrators

    This project is a simple operational amplifier circuit using a UA741CP chip. It provides essential differentiation and integration functions, featuring connections for power, input, and output. Two resistors, one capacitor, and several connectors complete the circuit design. #project

    1 Comment


  • Architectural Lavender Translation Collar

    Architectural Lavender Translation Collar

    Architectural Lavender Translation Collar – ESP32‑S3 Wi‑Fi + LoRa, USB‑C, Li‑ion, low‑power design Overview Experience a cutting-edge IoT solution with this low‑power board built around the ESP32‑S3‑MINI‑1‑N8. Designed for seamless Wi‑Fi (2.4 GHz), BLE, and LoRa (868 MHz) connectivity, this board integrates ENS161 and ENS210 sensors over I2C alongside an RFM95W‑868 LoRa radio on SPI. It is powered via a 3.7 V Li‑ion cell with USB‑C charging up to 500 mA, complete with full battery protection, a robust 3.3 V rail tailored for Wi‑Fi burst currents, and per‑peripheral power gating to enhance energy efficiency. Core Features • MCU: ESP32‑S3‑MINI‑1‑N8 equipped with an onboard PCB antenna for 2.4 GHz Wi‑Fi/BLE, ensuring optimal wireless performance. • Sensors: Integrated ENS161 and ENS210 sensors utilize a shared I2C bus with controllable 4.7 kΩ pull‑ups for streamlined communication. • LoRa Radio: The RFM95W‑868 module, connected via SPI, enables long‑range communication at 868 MHz. Power & USB‑C Connectivity • Battery: A reliable 3.7 V 1200 mAh Li‑ion battery connected via a right‑angle JST‑PH 2‑pin connector features built‑in battery protection. • Charging: The USB‑C receptacle, with CC resistors and TVS protection on D+/D− along with series resistors, supports fast, safe charging with a current limit of 500 mA. • Regulation: A dedicated 3.3 V regulator capable of handling Wi‑Fi burst currents coupled with bulk and high‑frequency decoupling ensures stable operation, supported by status LEDs indicating power and charge states. Low‑Power Control • Peripheral Management: Load switches allow selective power‑gating of the ENS161, ENS210, and RFM95W modules, controlled directly by ESP32‑S3 GPIOs. • Energy Efficiency: Controllable I2C pull‑ups minimize idle current, vital for prolonged battery life in IoT applications. RF and Antenna Integration • 2.4 GHz: Utilizes the integrated PCB antenna on the ESP32‑S3 with proper ground/metal keep‑out zones for optimal signal integrity. • 868 MHz: Features a controlled‑impedance feed from the RFM95W to a PI matching network (C‑L‑C pads) with flexible antenna options—selectable via SMA connector, chip antenna, or PCB trace—and includes RF ESD protection. Connectivity & Debug Features • USB‑C Interface: Provides secure data connectivity with integrated safeguards and proper terminations. • Debugging: A comprehensive programming/debug header exposes EN, BOOT, and UART lines, with test points on key rails and buses (3V3, VBAT, SCK, MOSI, MISO, SDA, SCL, RESET/EN, GND) to simplify development and troubleshooting. Design Verification • Rigorous ERC/DRC and decoupling checks ensure adherence to component ratings and optimal signal routing. • Maintain RF keep‑outs and impedance‑controlled traces for both 2.4 GHz and 868 MHz paths, securing reliable performance even during high‑intensity operations. #IoT #ESP32S3 #LoRa #LowPowerDesign #USB-C #WirelessConnectivity #BatteryPowered #RFDesign


  • MAX1551 Reference Design

    MAX1551 Reference Design

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog


  • MAX1551 Reference Design

    MAX1551 Reference Design

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog


  • MAX1551 Reference Design

    MAX1551 Reference Design

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog #reference-design #polygon

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  • MAX1551 Reference Design a884

    MAX1551 Reference Design a884

    This project is a battery charging circuit utilizing a MAX1551 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1551 #template #bms #analog


  • MAX1555 Reference Design

    MAX1555 Reference Design

    This project is a battery charging circuit utilizing a MAX1555 chip. It features a USB and DC power input, with LED status indicators. The design is outfitted with necessary decoupling capacitors and resistors to ensure smooth operation. #project #Template #charger #referenceDesign #batterycharger #MAX1555 #template #bms #analog #reference-design #polygon

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