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The project presented here uses the MAX5541 chip, a serial-input, voltage-output, 16-bit monotonic digital-to-analog converter (DAC) that operates from a single +5Vdc supply. Notably, the DAC output is unbuffered, resulting in a low supply current of 0.3mA and a minimal offset error of 1 LSB. The DAC output range spans from 0V to VREF, providing a wide range of voltage output options.
C103
The project presented here uses the MAX5541 chip, a serial-input, voltage-output, 16-bit monotonic digital-to-analog converter (DAC) that operates from a single +5Vdc supply. Notably, the DAC output is unbuffered, resulting in a low supply current of 0.3mA and a minimal offset error of 1 LSB. The DAC output range spans from 0V to VREF, providing a wide range of voltage output options.
The DAC latch is designed to accept a 16-bit serial word, allowing for precise control over the output voltage. Additionally, a power-on reset (POR) circuit is integrated, which clears the DAC output to 0V in unipolar mode when power is initially applied. This ensures a stable and predictable startup sequence.
The 10MHz 3-wire serial interface is compatible with SPI, QSPI, and MICROWIRE protocols, enabling seamless communication with a wide range of microcontrollers and other devices. Furthermore, the interface can be directly connected to optocouplers, making it suitable for applications that require isolation.
To provide a stable reference voltage, the REF3025 chip is used, which supplies a precise 2.5V reference voltage to the DAC. This ensures that the DAC output is accurate and reliable, making it suitable for a variety of applications that require high-precision voltage output.
The MAX5541 voltage-output, 16-bit digital-to-analog converter (DAC) offers 16-bit monotonicity with less than 1LSB differential linearity error. Serial-data transfer minimizes the number of package pins required. The MAX5541 is composed of two matched DAC sections, with a 12-bit inverted R-2R DAC forming the twelve LSBs and the four MSBs derived from fifteen identically matched resistors. This architecture allows the lowest glitch energy to be transferred to the DAC output on major-carry transitions. It also decreases the DAC output impedance by a factor of eight compare to a standard R-2R ladder, allowing unbuffered operation in medium-load applications.
This compact shield is based on the HX711 ADC, specifically designed to interface load cells and strain gauge sensors. It can be paired with the OLEDUINO-V2, enabling the creation of a miniature electronic weighing scale.
This board consists of Arduino-compatible hardware which includes an OLED display, ADS1115 4-Channel 16Bit ADC, Arduino-compatible Microcontroller ATMEGA328, a connector for Arduino Programming, a connector for 4 Channel Analog input, and a connector for a couple of I/O lines. Operating supply 5V DC.
This is an I2C electronic load, intended for testing power supplies, solar panels, batteries, and supercapacitors. The board consists of an I2C interface DAC MCP4725, OPAMP U2 acts as V to I (Voltage to Current), OPAMP U3 measures the load current across the shunt resistor and provides 0 to 4.9V Voltage with a current range of 0 to 1A. Users may control the battery discharge current using the MCP4725 DAC in the range 0 to 1A. The circuit also provides load current feedback and voltage feedback. This way it can help users to measure the battery’s performance. Suppose the user desires to measure the battery’s performance as it is being discharged at constant power. In that case, a current measuring circuit can be used in the feedback loop to enforce the constant power constraint. This enables you to discharge a battery at a controlled way. The project can handle 1A @ 24V, thus a total of 24W with the use of a large-size heatsink and fan. The circuit works with 5V DC voltage input. The project can be used with Arduino, ESP32, or other microcontroller.
Product consists of 20 non-contact infrared reflective sensors and each sensor provides an analog output. QRD114 sensor is the heart of the project which includes Infrared LED and photosensor. The output of each sensor is high and goes low as objects or lines detected. The analog output voltage is proportional to IR reflected back to the sensor. The project has been designed to be used in robotics applications for line follower or multi-object sensor. Sensor requires 5V DC to work, all LEDs have current limiting resistors, each output has a pull resistor, and the normal output of each sensor is high due to the pull-up resistor and goes low as object or line is detected. IR LEDs power ON/OFF can be controlled using Q1 BD140 PNP BJT transistor which requires a low voltage for normal operation or all IR LED and can be powered up to 5V DC with help of VL input pin. Two 3mm mountings provided for easy mounting on robot chassis. By reflected infrared light, it can detect transitions from light to dark or any objected comes across the sensor.
The 8 Channel Driver Arduino UNO Shield is designed to enable users to switch inductive loads for up to 800mA each channel and up to 24V DC with no heat-sink needed. It is ideal for such applications as driving 2x unipolar stepper motors, solenoids, relays, and small DC motors. It uses 2x DRV8803 Chip from Texas instruments which is 4 channel low side driver with over current protection. IC’s Internal shutdown protection function is provided for overcurrent protection, short circuit protection, under-voltage lockout, and over temperature. Faults are indicated by a fault output pin that is normally high and goes low if a fault condition occurs. Reset and enable pins has internal pull-down resistors.
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