Sensors

ESP32-C3-MINI-1 ESP32-C 802.11 b/g/n (WiFi/WLAN/Wi-Fi 4), Bluetooth® 5.x (BLE) Transceiver 2.4GHz Evaluation Board ESP32-C3-DevKitM-1 is a compact entry-level development board from Espressif Systems based on the ESP32-C3-MINI-1 module. It integrates a 32-bit RISC-V single-core microcontroller, 2.4 GHz Wi-Fi, and Bluetooth Low Energy (BLE) connectivity, making it suitable for IoT devices, embedded applications, smart sensors, and wireless control projects. The board exposes most GPIO pins through headers for easy prototyping and supports programming through USB. Key Features: 32-bit RISC-V Single-Core Processor Based on ESP32-C3 SoC architecture Clock frequency up to 160 MHz Wireless Connectivity Integrated 2.4 GHz Wi-Fi (802.11 b/g/n) Bluetooth 5 Low Energy (BLE) support Memory 4 MB embedded Flash memory inside the ESP32-C3-MINI-1 module GPIO and Peripheral Interfaces Multiple programmable GPIO pins Supports interfaces such as: SPI UART I²C I²S PWM ADC USB Serial/JTAG Development Board Features Built-in ESP32-C3-MINI-1 module with PCB antenna USB interface for programming and power 5 V to 3.3 V onboard voltage regulator Breadboard-friendly pin headers Applications IoT gateways Smart home devices Wireless sensors Industrial automation Wearable electronics Embedded control systems #ESP32C3 #ESP32 #DevKitM1 #Espressif #RISCVD #WiFiMCU #BluetoothLE #IoT #EmbeddedSystems #Microcontroller #WirelessModule #SmartDevices #ElectronicsDesign #Prototyping

Adafruit 2472 BNO055 breakout Adafruit BNO055 Absolute Orientation Sensor is a 9-DoF intelligent motion tracking module based on the Bosch BNO055 system-in-package sensor. The device integrates a 3-axis accelerometer, 3-axis gyroscope, 3-axis magnetometer, and an onboard ARM Cortex-M0 microcontroller running Bosch sensor fusion algorithms. Unlike traditional IMUs, the BNO055 directly outputs absolute orientation data in Euler angles, quaternions, linear acceleration, gravity vectors, and calibration information, eliminating the need for complex sensor fusion calculations on the host MCU. The sensor communicates via I²C or UART interfaces and is widely used in robotics, drones, autonomous vehicles, VR/AR systems, motion tracking, navigation, balancing robots, wearable devices, and orientation sensing applications. Search Keywords: BNO055, Adafruit BNO055, Absolute Orientation Sensor, 9DOF Sensor, IMU Sensor, Bosch BNO055, Sensor Fusion IMU, Orientation Sensor, Quaternion Sensor, Euler Angle Sensor, Motion Tracking Sensor, Accelerometer Gyroscope Magnetometer, AHRS Sensor, Robotics IMU, Drone Orientation Sensor, Wearable Motion Sensor, Navigation Sensor, I2C IMU Sensor, UART IMU Sensor, Absolute Position Sensor Hashtags: #BNO055 #Adafruit #BoschSensortec #IMU #9DOF #OrientationSensor #MotionTracking #SensorFusion #Quaternion #AHRS #Accelerometer #Gyroscope #Magnetometer #Robotics #DroneTechnology #EmbeddedSystems #IoTDevices #ElectronicsDesign #PCBDesign #HardwareEngineering

MCP6001/MCP6002/MCP6004 are low-power rail-to-rail input/output operational amplifiers from Microchip Technology designed for battery-powered, portable, industrial, automotive, and general-purpose analog applications. Operating from a single supply voltage of 1.8 V to 6.0 V, the family provides a typical gain-bandwidth product of 1 MHz, low quiescent current of only 100 µA per amplifier, and full rail-to-rail input/output operation for maximum dynamic range. Available in single, dual, and quad amplifier versions, the MCP600x series is well suited for sensor interfaces, photodiode amplifiers, analog filters, signal conditioning, portable instrumentation, IoT devices, battery-powered electronics, and embedded analog circuits requiring low power consumption and cost-effective performance. Search Keywords: MCP6001, MCP6002, MCP6004, Microchip MCP6001, Rail to Rail Op Amp, Low Power Operational Amplifier, Single Supply Op Amp, General Purpose Op Amp, Analog Signal Conditioning, Sensor Amplifier, Photodiode Amplifier, Battery Powered Amplifier, Low Voltage Op Amp, 1MHz Op Amp, Rail to Rail Input Output Amplifier, Portable Electronics Amplifier, Embedded Analog Circuit, Analog Filter Amplifier, Precision Signal Amplifier, Microchip Operational Amplifier Hashtags: #MCP6001 #MCP6002 #MCP6004 #Microchip #OperationalAmplifier #OpAmp #RailToRail #AnalogElectronics #SignalConditioning #SensorInterface #LowPowerDesign #BatteryPowered #EmbeddedSystems #AnalogCircuit #ElectronicsDesign #PCBDesign #HardwareEngineering #IoTDevices #Instrumentation #ElectricalEngineering

DS90LV049Q is an automotive-qualified dual LVDS line driver and receiver pair from Texas Instruments designed for high-speed differential data transmission in low-power automotive and industrial communication systems. The device converts LVTTL/LVCMOS logic signals to Low Voltage Differential Signaling (LVDS) and vice versa, supporting data rates exceeding 400 Mbps while maintaining low power dissipation and excellent noise immunity. Featuring AEC-Q100 Grade 1 qualification, integrated fail-safe receiver biasing, TRI-STATE output control, low channel-to-channel skew, and a single 3.3 V supply operation, the DS90LV049Q is optimized for robust high-speed serial communication, sensor interfaces, display systems, industrial automation equipment, and automotive electronic control units requiring reliable differential signaling. DS90LV049QMTX/NOPB DS90LV049Q, Texas Instruments DS90LV049Q, LVDS Driver Receiver, Dual LVDS Transceiver, LVDS Line Driver, LVDS Receiver, Differential Signaling IC, High Speed Communication Interface, 400Mbps LVDS, Automotive LVDS Interface, AEC-Q100 Transceiver, LVTTL to LVDS Converter, LVCMOS to LVDS Converter, Differential Data Transmission, Industrial Communication IC, Display Interface Driver, High Speed Serial Communication, Automotive Communication IC, Low Power LVDS Transceiver, TI Interface IC Hashtags: #DS90LV049Q #TexasInstruments #LVDS #LVDSDriver #LVDSReceiver #DifferentialSignaling #HighSpeedCommunication #AutomotiveElectronics #AECQ100 #SerialCommunication #InterfaceIC #IndustrialElectronics #EmbeddedSystems #HardwareDesign #ElectronicsDesign #PCBDesign #SignalIntegrity #DataTransmission #CommunicationSystems #ElectricalEngineering

MCP9808 - Temperature Sensor Evaluation Board The Adafruit 1782 MCP9808 Temperature Sensor Breakout is a compact sensor evaluation board that enables high-accuracy digital temperature measurement using the MCP9808 sensor IC. It supports an I²C communication interface, allowing simple connection to microcontrollers while maintaining high precision over a wide operating temperature range. Key Features High Accuracy Temperature Sensing: Typical accuracy of ±0.25°C for reliable temperature monitoring. Wide Temperature Range: Measures temperatures from -40°C to +125°C. Digital I²C Interface: Simple two-wire communication interface for easy integration with embedded systems. High Resolution: Provides temperature resolution up to 0.0625°C. Wide Supply Voltage Range: Operates from 2.7V to 5.5V, compatible with common logic levels. Multiple Device Addressing: Configurable address pins allow multiple sensors to share the same I²C bus. Compact Breakout Board Design: Includes supporting components and headers for quick prototyping. Low Power Consumption: Suitable for battery-powered and portable applications. Applications IoT environmental monitoring Weather stations Industrial temperature monitoring Battery management systems Data logging equipment Embedded control systems Hashtags #Adafruit1782 #MCP9808 #TemperatureSensor #DigitalSensor #I2C #EmbeddedSystems #IoT #Arduino #RaspberryPi #SensorModule #ElectronicsDesign #HardwareDevelopment

Ultrasonic Sensor, Aluminum, Transmitter, 80Degree, 0.2M-15M range #commonpartslibrary #sensor #transducer

LORA-CC68-915MHz-TCXO is a compact, high-performance LoRa wireless transceiver module from NiceRF based on the Semtech LLCC68 chipset. Operating in the 915 MHz ISM band, it features a high-precision TCXO (Temperature-Compensated Crystal Oscillator) for improved frequency stability, making it ideal for long-range, low-power IoT and industrial wireless communication applications. The module supports LoRa, FSK, and GFSK modulation schemes, provides up to +22 dBm (160 mW) transmit power, and achieves receiver sensitivity as low as -129 dBm for extended communication range. It communicates through an SPI interface and is optimized for battery-powered and low-power systems. Key Features Based on Semtech LLCC68 LoRa transceiver chip 915 MHz ISM band operation High-precision TCXO for enhanced frequency stability Supports LoRa, FSK, and GFSK modulation Up to +22 dBm (160 mW) RF output power Receiver sensitivity up to -129 dBm SPI communication interface Operating voltage: 1.8 V to 3.7 V Low receive current (~6.5 mA typical) Integrated antenna switching circuitry Compact 16 mm × 16 mm SMD package Suitable for long-range and low-power wireless applications FCC-certified 915 MHz version RoHS compliant Typical Applications Smart Metering Industrial Automation Agricultural Monitoring Smart Cities Environmental Sensors Asset Tracking Warehouse Management Remote Control Systems Street Lighting Control Battery-Powered IoT Devices #CommonPartsLibrary #Module #LoRa #LLCC68 #915MHz #TCXO #WirelessModule #RFModule #IoT #IndustrialAutomation #SmartMetering #LongRangeCommunication #LowPowerDesign #SPI #EmbeddedSystems #NiceRF

Ethernet Controller 10/100 Base-T/TX Bus Interface 80-TQFP-EP (12x12) The LAN9254-I/JRX is an EtherCAT SubDevice (slave) controller developed by Microchip Technology, designed to serve as the communication backbone for industrial automation devices participating in an EtherCAT network. The device integrates dual Ethernet physical layer transceivers directly on-chip, eliminating the need for external PHY components and simplifying the design of EtherCAT-enabled equipment such as servo drives, sensors, I/O modules, and other field devices used in real-time industrial control systems. Architecturally, the controller can operate as either a two-port or three-port node, depending on the network topology required. In its standard configuration it functions as a two-port device supporting daisy-chain connections typical of EtherCAT line topologies. When configured as a three-port device, it gains an additional management interface port that can connect to an external PHY or to another LAN9254, enabling star or tree network topologies and allowing the device to act as a branching point within a larger EtherCAT installation. Each integrated Ethernet PHY operates in full-duplex mode and supports automatic crossover detection, so the device can use either straight-through or crossover cabling without requiring manual configuration. Beyond pure protocol handling, the LAN9254 includes a substantial set of general-purpose digital input and output lines, allowing it to be used in simple field devices without requiring a separate microcontroller. For more complex applications, the device communicates with an external host processor through an integrated host bus interface that behaves like simple memory-mapped SRAM, supporting both 8-bit and 16-bit data widths along with multiple byte-ordering conventions, which makes it straightforward to interface with a wide range of microcontroller and microprocessor architectures. Internally, dual process data RAM buffers manage the exchange of real-time process data between the host application and the EtherCAT communication engine, while a dedicated interrupt line notifies the host of relevant internal events. A key feature of the device is its built-in distributed clock mechanism, which provides high-precision timing synchronization across all nodes in an EtherCAT network. This capability is essential for motion control and other applications where multiple devices must act in tight temporal coordination. The controller also provides configurable status indication through standard network activity and link LEDs, along with optional error and run-state indicators that give visibility into the health and operational state of the device at a glance. Power architecture on the LAN9254 is simplified through an integrated linear regulator, allowing the device to be operated from a single primary supply rail while internally generating the lower voltage needed for its core logic. This reduces the external power supply complexity that would otherwise be required to support separate core and I/O voltage domains. The "-I" designation on this particular part number indicates an industrial-grade temperature rating, making it suitable for deployment in factory floor and other demanding industrial environments where extended thermal range and long-term reliability are required. The device is housed in a surface-mount package consistent with dense industrial control board layouts and is compliant with RoHS material restrictions. Spec Sheet Identification Part Number: LAN9254-I/JRX Device Family: LAN9254 Manufacturer: Microchip Technology Functional Classification Device Type: EtherCAT SubDevice (slave) controller Network Role: Two/three-port configurable node Integrated PHYs: Dual Ethernet physical layer transceivers, on-chip Auto-MDIX Support: Yes, supports direct and crossover cabling Communication & Protocol Features Protocol: EtherCAT Topology Support: Daisy-chain (line), star, and tree topologies Additional Port Mode: Optional third port for branching/tap configurations Clock Synchronization: Integrated distributed clock for high-precision timing Host Interface Interface Type: SRAM-like host bus interface Data Width Support: Selectable bit-width host bus operation Endianness Support: Multiple byte-ordering modes Process Data Handling: Dual process data RAM buffers Interrupt Support: Configurable host interrupt line Digital I/O General-Purpose I/O: Integrated digital I/O lines for microcontroller-less operation Standalone Mode: Supports operation without external microcontroller for simple device designs Power Architecture Supply Configuration: Single primary supply rail Internal Regulation: Integrated linear regulator for core voltage generation Status Indication LED Support: Standard run and link/activity indicators per port Optional Indicators: Configurable error and run-state status indicators Environmental & Qualification Temperature Grade: Industrial ("-I" suffix) RoHS Compliance: Yes Package Package Type: Surface-mount, quad flat package style Mounting: Surface mount technology (SMT) Packaging Format Supply Format: Tape-and-reel, per part suffix designation #LAN9254 #Microchip #EtherCAT #SlaveController #SubDeviceController #IndustrialEthernet #IndustrialAutomation #MotionControl #EmbeddedSystems #FieldDevice #DigitalIO #HostBusInterface #DistributedClock #TQFP #RoHSCompliant #IndustrialGrade #EngineeringSpec #ComponentLibrary #CommonPartsLibrary #SemiconductorIC

Pressure Sensor 25PSI (172.37kPa) Absolute Male - 0.1\" (2.5mm) Tube 24 b 12-SMD, No Lead, Top Port

MAX3188EEUT+T SOT-23-6_L2.9-W1.6-P0.95-LS2.8-BL LCSC Part Number: C2671283 JLCPCB Part Class: Extended Part Manufactured by ADI(亚德诺)/MAXIM(美信) MAX31889 MAX31889 is a high-accuracy digital temperature sensor from Analog Devices featuring an I²C interface and industry-leading measurement precision of ±0.25°C from -20°C to +105°C and ±0.65°C from -40°C to +125°C. Operating from a 1.7V to 3.6V supply, the device offers low power consumption with only 68µA during measurements and 0.55µA in standby mode, making it ideal for battery-powered systems. The sensor includes programmable high and low temperature alarms, a 32-word FIFO buffer for temperature data logging, configurable GPIO pins for conversion triggering and interrupt generation, and unique ROM identification for traceability. Packaged in a compact 2mm × 2mm 6-pin µDFN package, the MAX31889 is suitable for precision temperature monitoring, industrial systems, IoT devices, medical equipment, environmental sensing, and RTD replacement applications. Search Keywords: MAX31889, Analog Devices MAX31889, digital temperature sensor, I2C temperature sensor, precision temperature sensor, high accuracy temperature sensor, low power temperature sensor, industrial temperature sensor, IoT temperature sensor, environmental monitoring sensor, battery powered sensor, programmable temperature alarm, FIFO temperature sensor, RTD replacement, temperature monitoring IC, ±0.25°C temperature sensor, µDFN temperature sensor, embedded temperature sensor, thermal monitoring Hashtags: #MAX31889 #AnalogDevices #TemperatureSensor #DigitalTemperatureSensor #I2C #PrecisionSensor #ThermalMonitoring #EnvironmentalMonitoring #IndustrialElectronics #IoT #EmbeddedSystems #LowPowerDesign #BatteryPowered #Sensor #Measurement #DataLogging #Electronics #ElectronicComponents #PCBDesign #ADI