المنتجات

This  is a low-cost video distribution amplifier capable of driving up to four video lines. The amplifier is configured with a non-inverting gain of 2. The input video source is terminated in 75 Ohms and is applied to the high impedance non-inverting input. Each output line is connected to the op-amp’s output via 75 Ohms series back termination resistor for proper cable termination. The termination resistor at the other end of the lines divides the output signal by 2, which is compensated by the gain of 2 of the op-amp. The project is built using AD8010 op-amp which is optimized for this specific function of providing excellent video performance in driving multiple video loads in parallel. Significant power is saved and heat sinking is greatly simplified because of the ability of the AD8010 to obtain this performance when running on ±5 V supply. Circuit provides 46dB of output-to-output isolation at 5Mhz driving back terminated 75 Ohms cable. Ferrite beads and high-value ceramic capacitors are used on the power supply input to reduce the noise.

This is a High Voltage Undervoltage (UV), Overvoltage (OV) and Reverse Supply Protection Controller consists of LTC4365 chip and MOSFET. The controller protects the load circuit from input voltages that may be too high, too low or negative. It operates by controlling the gates of two back-back connected MOSFETs to keep the output in safe range. The OV and UV protection levels are adjusted by resistive dividers at the OV and UV pins. Asserting the SHDN pin disables the MOSFETs and places the LTC4365 in a low-current shutdown state. The FAULT pin is asserted when the controller is in shutdown mode or when the input voltage is outside of the UV or OV level.  The LTC4365 can withstand DC voltages between -40V and 60V and has a valid operating range 2.4V to 35V. In this project the circuit is optimized for 12V DC, Undervoltage is set to 5V DC and Overvoltage is 18V DC.

This is an Arduino compatible board for creating 2 Digit Display projects. The circuit operates with 5V DC, Connector CN1 is provided for bootloader programming and Arduino firmware upload. A new Atmega328 chip requires a bootloader and Arduino firmware programming, Connector CN1 helps you with both functions. Follow the link below to learn more about programming using Arduino. Arduino code is available as a download to test the board.

This is an Isolated Potentiometer Module that integrades an LOC110 linear optocoupler, isolated DC-DC converter, an onboard 10K linear potentiometer, and supporting circuitry. This module is designed for reliable operation in VFD drives, process control, PLCs, automation, and other industrial applications where safe analog signal isolation is required.

Thanks to the onboard isolated DC-DC converter, the module operates from a single 5V DC supply, simplifying integration. With full rotation of the potentiometer, the output provides a 0–3.3V DC isolated analog signal, completely isolated from the potentiometer input.

This is a Precision Micro-power true RMS-to-DC converter built using LTC1966 RMS to DC Converter chip and op-amp LTC1494. The RMS to DC that is Converted by LTC1966 and op-amp is used as a post filter to improve AC Response with Offset and Gain Correction. The circuit converts the AC signal into DC. The project works with a single AC input signal and a variety of passive components provided to support configurations for varied applications. Input 1 and Input 2 can be used to feed differential signals. In this case choose appropriate components as per application requirement. Please refer to the datasheet of LTC1966 for more information. The board operates with a dual power supply +/-5V DC. The input voltage range is up to 1V and the output is also up to 1V.

This is a precision, low power, and easy-to-use oscillator that provides multiphase outputs. The output frequency of the project is set to 250Khz, with 40% spread spectrum. The oscillator frequency can be set by resistor R1, and the spread spectrum can be changed using R3. The master oscillator is controlled by the R_SET resistor R1 and has a range of 100khz to 20Mhz. In order to accommodate a wider output frequency range, a programable divider, (divide by 1, 10, 100) is included and can be set using jumper J1.  The integrated programmable multiphase circuit provides either 2, 3, or 4 phase waveforms. The LTC6902’s SSFM capability modulates the oscillator’s frequency by a pseudorandom noise (PRN) signal to spread the oscillator’s energy over a wide frequency band. This spreading decreases the peak electromagnetic radiation level and improves electromagnetic compatibility (EMC) performance. The amount of frequency spreading is programmable by a single additional external resistor R3 (R_MOD). Refer to 4 Phase output waveform diagram.

The compact module shown here is a linear current source for LED driver and it’s ideal for automotive LED lighting applications. The project is built using a TLD1211 chip from Infineon. The board provides supply to LEDs under the severe condition of automotive applications resulting in constant brightness and extended LED lifetime. The project is capable to drive high current, high brightness LEDs. The circuit features overload, short circuit, over-voltage, and over-temperature protections. It also has the option to control the LED brightness control by an external PWM signal.

This simple product allows users to design an under-voltage, over-voltage, under-current, and over-current protection switch. It is a very useful system for safeguarding electrical loads against abnormal power or current conditions.

The product presented here is suitable for all types of resistive, inductive, and capacitive loads, and can also be used to drive LEDs. The board is built using 2 x VN5025AJ chips which are monolithic devices made using STMicroelectronics VIPower technology. It is intended for driving resistive or inductive loads with one side connected to the ground. Active VCC pin voltage clamp protects the device against low energy spikes. This device integrates an analog current sense which delivers a current proportional to the load current (according to a known ratio) when CS_DIS is driven low or left open. When CS_DIS is driven high, the CURRENT SENSE pin is in a high impedance condition. Output current limitation protects the device in overload conditions. In case of long overload duration, the device limits the dissipated power to a safe level up to thermal shut-down intervention. Thermal shut-down with automatic restart allows the device to recover normal operation as soon as the fault condition disappears.

This 500mA Power Op Amp Breakout Board is designed around the Analog Devices LT1970A, a high-current operational amplifier. The board operates on a dual power supply and includes an onboard fault indicator LED for easy diagnostics, with header connectors for power input, signal input, and output that make integration into a larger design simple. Figure 1 shows the assembled board.

This comparator relay board is a simple and flexible solution that can be configured for a wide range of applications, such as automatic light/dark switching, over-voltage and under-voltage protection, over-current and under-current detection, pressure-based switching, temperature control, and interfacing with various analog sensors.

This power load switch project provides a simple and inexpensive method for power control. It is intended for driving a resistive or inductive load. A TTL logic signal from the system turns the load switch ON and OFF. The project consists of a low ohm N-Channel Power Trench MOSFET FDB0300N1007L and Gate driver MAX5048 chip.  The load can be controlled by applying a PWM signal or Logic input.