ENS160 IS A DIGITAL MULTI-GAS SENSOR SPECIFICALLY DESIGNED FOR INDOOR AIR QUALITY MONITORING

Summary of ENS160 IS A DIGITAL MULTI-GAS SENSOR SPECIFICALLY DESIGNED FOR INDOOR AIR QUALITY MONITORING


ENS160 is a digital multi-gas indoor air quality sensor using ScioSense TrueVOC™ MOX technology with four independently controlled sensing elements and on-chip algorithms to report TVOC, eCO2, and AQI. It offers high immunity to siloxanes and humidity, fast warm-up, integrated sensor fusion and baseline correction, and high-speed I2C/SPI interfaces with a separate VDDIO supply and configurable interrupt engine.

Parts used in the ENS160 Project:

  • ENS160 LGA packaged multi-gas sensor
  • MOX sensor elements (up to 4 independent elements integrated in ENS160)
  • On-chip microcontroller/processing for sensor fusion and algorithms
  • I2C or SPI slave interface circuitry
  • Separate VDDIO supply pin (1.71 to 3.6 V)
  • Heater drive control (integrated)
  • Interrupt pin and polarity/pin configuration circuitry
  • Power supply supporting operating temperature and humidity ranges

ENS160 is a digital multi-gas sensor specifically designed for indoor air quality monitoring, offering optimum detection of a wide range of gases and volatile organic compounds (VOCs), including toluene, hydrogen, ethanol, NO2, and ozone.

ENS160 IS A DIGITAL MULTI-GAS SENSOR SPECIFICALLY DESIGNED FOR INDOOR AIR QUALITY MONITORING

Based on ScioSense innovative TrueVOC™ technology, ENS160 combines the flexibility of four independently controlled sensor elements, based on metal oxide (MOX) technology, with intelligent on-chip algorithms to calculate CO2-equivalents, TVOC, and various air quality indices (AQIs).

The LGA packaged device offers an SPI or I2C slave interface with a separate supply for host communication.

Key Features

  • Detection of reducing (VOCs) and oxidizing gases (e.g., NO2)
  • Multiple IAQ outputs (TVOC, eCO2, AQI)
  • On-chip data processing
  • High immunity to siloxanes and humidity

Additional Features

  • Warm-up time: less than 1 minute
  • Initial start-up time: less than 1 hour
  • Supports up to 4 independent MOX gas sensors
  • Integrated pre-calibrated sensor fusion and automatic baseline correction algorithms
  • Integrated sensor measurement and heater drive control
  • Wide operating ranges:
    • Temperature (T): -40 to +85 °C
    • Relative humidity (RH): 5 to 95%
  • High-speed I2C and SPI interfaces
  • Separate digital I/O supply pin:
  • VDDIO: from 1.71 to 3.6 V
  • Configurable interrupt engine:
    • Polarity, pin configuration, events

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Quick Solutions to Questions related to ENS160:

  • What gases can the ENS160 detect?
    The ENS160 detects a wide range of gases and VOCs including toluene, hydrogen, ethanol, NO2, and ozone, and both reducing and oxidizing gases.
  • How does ENS160 report indoor air quality metrics?
    ENS160 uses on-chip algorithms and sensor fusion to calculate TVOC, eCO2, and various AQIs.
  • How many sensor elements does ENS160 support?
    ENS160 supports up to four independent MOX gas sensor elements.
  • What communication interfaces does ENS160 provide?
    The device provides high-speed I2C and SPI slave interfaces.
  • Does ENS160 include baseline correction and calibration?
    Yes, it includes integrated pre-calibrated sensor fusion and automatic baseline correction algorithms.
  • What are the operating temperature and humidity ranges?
    ENS160 operates from -40 to +85 °C and 5 to 95% relative humidity.
  • What are the power supply requirements for digital I/O?
    The separate VDDIO pin supports 1.71 to 3.6 V for host communication I/O supply.
  • How fast does ENS160 become operational after power-up?
    Warm-up time is less than 1 minute and initial start-up time is less than 1 hour.
  • Is ENS160 resistant to humidity and siloxanes?
    Yes, ENS160 has high immunity to siloxanes and humidity.
  • Does ENS160 provide configurable interrupts?
    Yes, it features a configurable interrupt engine with polarity, pin configuration, and events.

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