Gambar mungkin merupakan representasi.
Lihat spesifikasi untuk detail produk.
DAC8871SBPWR

DAC8871SBPWR

Product Overview

Category: Digital-to-Analog Converter (DAC)

Use: The DAC8871SBPWR is a high-performance, 16-bit digital-to-analog converter designed for precision applications. It converts digital input signals into analog output voltages with exceptional accuracy and linearity.

Characteristics: - High resolution: 16-bit resolution allows for precise control of analog output. - Low noise: The DAC8871SBPWR provides low noise performance, ensuring clean and accurate analog output signals. - Fast settling time: With a fast settling time, the DAC8871SBPWR can quickly respond to changes in the digital input signal. - Wide voltage range: The device operates over a wide voltage range, making it suitable for various applications. - Low power consumption: The DAC8871SBPWR is designed to minimize power consumption, making it ideal for battery-powered devices.

Package: The DAC8871SBPWR is available in a small footprint, surface-mount package, allowing for easy integration into compact designs.

Essence: The essence of the DAC8871SBPWR lies in its ability to accurately convert digital signals into analog voltages, enabling precise control and manipulation of analog systems.

Packaging/Quantity: The DAC8871SBPWR is typically packaged in reels or tubes, with a quantity of 2500 units per reel/tube.

Specifications

  • Resolution: 16 bits
  • Reference Voltage Range: 2.5V to 5.5V
  • Output Voltage Range: 0V to Vref
  • Integral Nonlinearity (INL): ±1 LSB (max)
  • Differential Nonlinearity (DNL): ±0.5 LSB (max)
  • Settling Time: 10 µs (typ)
  • Power Supply Voltage: 2.7V to 5.5V
  • Power Consumption: 0.6 mW (typ)

Detailed Pin Configuration

The DAC8871SBPWR features a total of 16 pins, each serving a specific function:

  1. VDD - Power supply voltage input
  2. VREF - Reference voltage input
  3. AGND - Analog ground
  4. AOUT - Analog output voltage
  5. DGND - Digital ground
  6. DIN[15:0] - Digital input data
  7. SCLK - Serial clock input
  8. SYNC - Synchronization input
  9. LDAC - Load DAC input
  10. CLR - Clear DAC input
  11. GAIN - Gain selection input
  12. REFSEL - Reference voltage selection input
  13. BUF - Buffer enable input
  14. NC - No connection
  15. NC - No connection
  16. VSS - Ground

Functional Features

  • High-resolution digital-to-analog conversion
  • Low noise and distortion
  • Fast settling time for rapid response
  • Wide voltage range operation
  • Low power consumption for energy efficiency
  • Flexible gain selection and reference voltage options
  • Buffered analog output for driving external loads

Advantages and Disadvantages

Advantages: - High precision and accuracy - Low noise performance - Fast settling time - Wide voltage range operation - Low power consumption

Disadvantages: - Limited output current capability - Requires external components for proper operation - Relatively high cost compared to lower-resolution DACs

Working Principles

The DAC8871SBPWR utilizes a digital-to-analog conversion technique called binary-weighted resistor ladder. It converts the digital input data into an equivalent analog voltage by adjusting the current flowing through a network of resistors. The resulting analog voltage is then buffered and amplified to provide the desired output.

Detailed Application Field Plans

The DAC8871SBPWR is well-suited for a wide range of applications, including: - Precision instrumentation - Audio equipment - Industrial control systems - Test and measurement equipment - Data acquisition systems - Programmable logic controllers (PLCs) - Medical devices

Detailed and Complete Alternative Models

  • DAC8871SPWR: Similar to DAC8871SBPWR but available in a different package.
  • DAC8871IPWR: Improved version with enhanced performance specifications.
  • DAC8872SBPWR: Dual-channel version of the DAC8871SBPWR.

These alternative models offer similar functionality and performance characteristics, providing flexibility in choosing the most suitable option for specific design requirements.

Word count: 590 words

Sebutkan 10 pertanyaan dan jawaban umum terkait penerapan DAC8871SBPWR dalam solusi teknis

Sure! Here are 10 common questions and answers related to the application of DAC8871SBPWR in technical solutions:

Q1: What is DAC8871SBPWR? A1: DAC8871SBPWR is a digital-to-analog converter (DAC) integrated circuit that converts digital signals into analog voltage outputs.

Q2: What is the operating voltage range of DAC8871SBPWR? A2: The operating voltage range of DAC8871SBPWR is typically between 2.7V and 5.5V.

Q3: What is the resolution of DAC8871SBPWR? A3: DAC8871SBPWR has a resolution of 16 bits, allowing for precise analog voltage outputs.

Q4: How many channels does DAC8871SBPWR have? A4: DAC8871SBPWR is a single-channel DAC, meaning it can generate one analog output voltage at a time.

Q5: What is the maximum output voltage range of DAC8871SBPWR? A5: The maximum output voltage range of DAC8871SBPWR is determined by the reference voltage applied to it. It can be adjusted within the specified limits.

Q6: Can DAC8871SBPWR operate in both unipolar and bipolar modes? A6: Yes, DAC8871SBPWR can operate in both unipolar (positive voltage only) and bipolar (positive and negative voltage) modes, depending on the configuration.

Q7: What is the interface used to communicate with DAC8871SBPWR? A7: DAC8871SBPWR uses a serial peripheral interface (SPI) for communication with a microcontroller or other digital devices.

Q8: Does DAC8871SBPWR have any built-in features for signal conditioning? A8: Yes, DAC8871SBPWR includes a programmable gain amplifier (PGA) that allows for signal conditioning and amplification before conversion.

Q9: Can DAC8871SBPWR be used in industrial applications? A9: Yes, DAC8871SBPWR is suitable for various industrial applications such as process control, motor control, instrumentation, and test equipment.

Q10: What is the power consumption of DAC8871SBPWR? A10: The power consumption of DAC8871SBPWR depends on the operating conditions but is typically low, making it suitable for power-sensitive applications.

Please note that these answers are general and may vary depending on the specific implementation and requirements of your technical solution.