Interface ICs
An interface IC is a type of integrated circuit that is designed to facilitate communication between two devices or systems. These devices are commonly used in electronic systems to enable the transfer of data and control signals between different components or subsystems. Some common use cases for interface ICs include connecting microcontrollers to peripherals such as sensors or displays, linking multiple processors together in a network, and enabling communication between devices using different communication protocols. Flux.ai has the world's largest community-driven public library of interface ICs, with footprints, symbols, datasheets, and simulation models. This library is a valuable resource for engineers and designers who need access to accurate and up-to-date information on these important components. Whether you are working on a new design project or simply looking to learn more about interface ICs, Flux.ai is an excellent resource to help you find the information you need.
MTCH2120-V/REB
Touchscreen Controller 2 Wire Capacitive I2C Interface 20-VQFN (3x3) The MTCH2120-V/REB specification defines the engineering requirements for a capacitive touch sensing controller integrated circuit designed for human-machine interface applications in embedded electronic systems. This specification establishes the functional, electrical, mechanical, environmental, and quality requirements necessary to ensure accurate touch detection, stable system performance, and reliable operation across consumer, industrial, and embedded environments. The device is intended for use in applications requiring touch-based user input such as control panels, interface buttons, and capacitive sensing surfaces. It provides robust sensing performance with immunity to noise and environmental variation, enabling reliable detection of touch events in compact and low-power electronic designs. Engineering Requirements The integrated circuit shall be manufactured using qualified semiconductor fabrication processes to ensure consistent sensing performance, low power consumption, and long-term operational stability. The device shall support reliable capacitive touch detection under defined electrical and environmental conditions without degradation of sensitivity or accuracy. The sensing architecture shall provide stable touch event detection with immunity to electrical noise, environmental interference, and parasitic capacitance variations. The system shall maintain consistent performance across intended operating conditions including temperature variation and supply voltage fluctuation. Electrical characteristics shall ensure stable digital communication, accurate sensing response, and reliable operation during startup, normal operation, and power transitions. The device shall maintain functional integrity during dynamic system conditions without false triggering or loss of sensitivity. Mechanical and package construction shall be suitable for surface-mount assembly and shall ensure robustness during soldering, handling, and long-term operation. Workmanship shall be free from defects such as contamination, cracks, bonding issues, or structural inconsistencies that could impact electrical or mechanical reliability. Inspection, validation, and testing shall be performed using controlled procedures and calibrated equipment to ensure compliance with all applicable engineering and quality requirements. Any deviation from this specification shall require formal engineering review, documented justification, and approval through established change control processes. Documentation Supporting documentation shall include official datasheets, reference design materials, electrical characterization reports, qualification data, inspection records, and revision-controlled manufacturing documentation. All documentation shall be maintained under formal configuration management and quality assurance systems to ensure traceability and consistency. Revision Control All modifications to this specification shall be managed through formal engineering change control procedures. Each revision shall undergo technical evaluation, validation, and approval prior to implementation to ensure continued compliance with design intent and applicable standards. #EngineeringSpecification #CapacitiveTouch #HMI #MicrochipTechnology #EmbeddedSystems #UserInterface #SensorIC #LowPowerDesign #ElectronicsDesign #QualityAssurance #EngineeringDocumentation
1 Uses0 Stars2479774-2
USB-C (USB TYPE-C) Receptacle Connector 24 (6+18 Dummy) - Power Only 6 Pin Position Surface Mount, Right Angle; Through Hole The 2479774-2 specification defines the engineering requirements for a high-density electronic connector assembly intended for board-to-cable or board-to-board interconnection in advanced electronic systems. This specification establishes the functional, mechanical, electrical, environmental, and quality requirements necessary to ensure reliable signal transmission, stable mechanical engagement, and long-term durability in demanding electronic applications. The component is intended for use in systems requiring compact interconnect solutions with high signal integrity and robust mechanical retention. It is suitable for applications such as industrial electronics, communication systems, embedded control units, and high-performance electronic assemblies where reliable connectivity and repeatable mating performance are required. Engineering Requirements The connector assembly shall be manufactured using precision-formed conductive materials and high-strength insulating housing materials to ensure stable electrical performance and mechanical reliability. The design shall support secure mating engagement and consistent signal continuity across repeated connection cycles. Electrical characteristics shall ensure low contact resistance, stable signal integrity, and reliable conductivity under defined operating conditions. The connector shall maintain performance under mechanical vibration, thermal variation, and environmental stress conditions typical of industrial and embedded system applications. Mechanical construction shall ensure accurate alignment between mating interfaces, secure locking engagement, and resistance to accidental disconnection. The design shall support repeated mating cycles without degradation of electrical or mechanical performance. Workmanship shall be free from defects such as contamination, deformation, plating irregularities, or structural inconsistencies that could impact reliability or functionality. Manufacturing and inspection shall be conducted under controlled quality systems using calibrated equipment to ensure compliance with engineering requirements. Any deviation from this specification shall require formal engineering review, documented justification, and approval through established engineering change control procedures prior to implementation. Documentation Supporting documentation shall include engineering drawings, connector datasheets, material declarations, inspection records, qualification test reports, and revision-controlled manufacturing documentation. All documentation shall be maintained under formal configuration management and quality assurance systems. Revision Control All changes to this specification shall be managed through formal engineering change control procedures. Each revision shall undergo technical evaluation, validation, and approval prior to release to ensure continued compliance with design intent and applicable standards. #EngineeringSpecification #Connector #HighDensityInterconnect #ElectronicComponents #SignalIntegrity #EmbeddedSystems #IndustrialElectronics #Manufacturing #QualityAssurance #EngineeringDocumentation
4 Uses0 StarsBT151-600R
The BT151-600R specification defines the engineering requirements for a high-power silicon controlled rectifier designed for phase control and switching applications in electronic power systems. This specification establishes the functional, electrical, mechanical, environmental, and quality requirements necessary to ensure reliable switching performance, controlled power regulation, and long-term operational stability. The device is intended for use in applications requiring efficient control of AC power or high-current DC switching, such as motor speed control, light dimming, power regulation circuits, and industrial control systems. It provides controlled conduction behavior triggered by gate activation and remains in conduction until current falls below the holding condition. Engineering Requirements The semiconductor device shall be manufactured using controlled silicon processing techniques to ensure stable thyristor operation, consistent triggering characteristics, and reliable current handling capability. The device shall maintain predictable switching behavior under defined electrical, thermal, and environmental operating conditions. Electrical characteristics shall ensure reliable gate triggering sensitivity, stable on-state conduction, and controlled turn-off behavior under appropriate circuit conditions. The device shall maintain performance integrity under surge conditions and repetitive switching operation within its design limits. Thermal performance shall support efficient heat dissipation through the package structure and mounting interface. The device shall be suitable for attachment to appropriate heat sinking systems to maintain safe operating junction conditions during continuous or high-load operation. Mechanical and package construction shall be suitable for surface-mount or power PCB assembly and shall ensure robust mechanical stability during soldering, handling, and thermal cycling. Workmanship shall be free from defects such as contamination, cracks, bond wire issues, or structural inconsistencies that could impact performance or reliability. Inspection, validation, and testing shall be performed using controlled procedures and calibrated equipment to ensure compliance with all applicable engineering and quality requirements. Any deviation from this specification shall require formal engineering review, documented justification, and approval through established change control processes. Documentation Supporting documentation shall include official datasheets, electrical characterization reports, thermal performance data, qualification test records, inspection reports, and revision-controlled manufacturing documentation. All documentation shall be maintained under formal configuration management and quality assurance systems to ensure traceability and consistency. Revision Control Any modification to this specification shall be managed through formal engineering change control procedures. All revisions shall undergo technical review, validation, and approval prior to implementation to ensure continued compliance with design intent and applicable standards. #EngineeringSpecification #SCR #Thyristor #PowerElectronics #PhaseControl #IndustrialControl #Semiconductor #PowerSwitching #QualityAssurance #EngineeringDocumentation
1 Uses0 StarsSTM32G491RET6
ARM® Cortex®-M4F STM32G4 Microcontroller IC 32-Bit 170MHz 512KB (512K x 8) FLASH 64-LQFP (10x10) The STM32G491RET6 from STMicroelectronics is a high-performance 32-bit microcontroller based on the Arm® Cortex®-M4 core with Floating Point Unit (FPU), designed for advanced embedded applications requiring high computational performance, precise analog processing, and real-time control. It belongs to the STM32G4 series and integrates enhanced analog peripherals, motor-control timers, communication interfaces, security features, and hardware accelerators such as CORDIC and FMAC. The device operates at up to 170 MHz, provides 512 KB Flash memory, and includes 96 KB SRAM, making it suitable for applications such as motor control, digital power conversion, industrial automation, robotics, and embedded control systems. Key Features Core: Arm® Cortex®-M4 32-bit CPU with FPU, DSP instructions, and MPU Maximum CPU Frequency: Up to 170 MHz (up to 213 DMIPS) Memory: 512 KB Flash memory with ECC support 96 KB SRAM with parity checking features Quad-SPI memory interface Operating Voltage: 1.71 V to 3.6 V Package: LQFP-64 Advanced Analog Features: 3 × 12-bit ADCs with high-speed conversion 4 × 12-bit DAC channels 4 × Rail-to-Rail operational amplifiers 4 × Fast analog comparators Internal voltage reference buffer Hardware Accelerators: CORDIC accelerator for trigonometric calculations FMAC (Filter Math Accelerator) for digital filtering applications Timers & Motor Control: Advanced PWM timers for motor-control applications Multiple 16-bit and 32-bit timers Support for encoder and PWM control Communication Interfaces: 2 × FDCAN interfaces 5 × USART/UART 3 × SPI interfaces 3 × I²C interfaces USB 2.0 Full-Speed interface SAI audio interface Security Features: True Random Number Generator (TRNG) CRC calculation unit Unique device ID Debug & Programming: SWD and JTAG debugging support Typical Applications Motor control and BLDC controllers Digital power converters Industrial automation equipment Robotics and motion control Smart sensors and embedded control systems Power management applications #STM32G491RET6 #STM32G4 #STMicroelectronics #ARM_CortexM4 #Microcontroller #MCU #EmbeddedSystems #MotorControl #DigitalPower #IndustrialAutomation #Robotics #IoT #ElectronicsDesign #PCBDesign
28 Uses0 StarsMM238RW
FLYTO MM238RW 5.8G 4.9G 6.0G Wireless FPV Video Transmission Open-Source Receiver with SPI High Sensitivity The MM238RW is a high-sensitivity analog FPV (First-Person View) video receiver module designed for wireless image transmission systems operating in the 4.9 GHz, 5.8 GHz, and 6.0 GHz bands. It supports SPI control for frequency configuration and integration into custom embedded systems, FPV goggles, ground stations, and video receivers. The module provides low-latency CVBS video output, strong anti-interference performance, and wide compatibility with analog FPV video transmitters. Key Features Wide receiving frequency range: 4900 MHz to 5945 MHz SPI interface for channel and frequency control High receiver sensitivity of up to −90 dBm Low-latency analog CVBS video output FM/PLL demodulation architecture Excellent anti-interference performance 50 Ω RF input impedance Supply voltage: 3.3 V to 5.0 V Typical current consumption: 220 mA Compact module suitable for FPV goggles, monitors, and ground stations Supports custom firmware and open-source development platforms Applications FPV racing drones UAV and aerial photography systems Ground station receivers FPV goggles Wireless analog video monitoring Custom RF video receiver designs Hashtags: #MM238RW #FPV #VideoReceiver #5_8GHz #SPIInterface #DroneElectronics #WirelessVideo #CVBS #RFModule #UAV #FPVGoggles #EmbeddedSystems #AerialPhotography #LowLatency #OpenSourceFPV
0 Uses0 Stars
