Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light
Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light quarter size comparison
Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light back view
Combo Sensor TinyShield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light
Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light
Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light quarter size comparison
Combo Sensor Shield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light back view
Combo Sensor TinyShield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light

Combo Sensor TinyShield (13-DOF) 9-Axis, Temperature/Humidity, Pressure, Light

ASD2511-R-N-T-P-L

18 in stock
$ 39.95 Save $ -39.95
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DESCRIPTION

This TinyShield features four of our popular TinyShield Sensors on a single board!

9-Axis IMU: This sensor lets you measure 9 degrees of freedom (9DOF) with your TinyDuino and features the ST LSM9DS1 - a system-in-package featuring a 3D digital linear acceleration sensor, a 3D digital angular rate sensor, and a 3D digital magnetic sensor.
The LSM9DS1 has a linear acceleration full scale of ±2g/±4g/±8/±16 g, a magnetic field full scale of ±4/±8/±12/±16 gauss and an angular rate of ±245/±500/±2000 dps.

Temperature/Humidity: This sensor lets you measure temperature and humidity with the TinyDuino.  Based around the Silicon Labs Si7020-A10 sensor, this allows for accurate temperature measurement (+- 0.4C) and precision relative humidity readings.

Barometric Pressure: This sensor allows you to measure barometric pressure (and determine altitude) and temperature with your TinyDuino. Based around the Bosch BMP280 sensor, this allows you to measure barometric pressure with a +/- 1hPa absolute accuracy, and temperature with a +/- 1.0C accuracy.

Ambient Light: This sensor features a TAOS TSL2572 Ambient Light Sensor, that approximates human eye response to light intensity under a variety of lighting conditions and through a variety of attenuation materials. Accurate ALS measurements are the result of TAOS’ patented dual-diode technology and the UV rejection filter incorporated in the package. In addition, the operating range is extended to 60,000 lux in sunlight when the low-gain mode is used.

To learn more about the TinyDuino Platform, click here

    TECH SPECS

    To see what other TinyShields this will work with or conflict with, check out the TinyShield Compatibility Matrix

      ST LSM9DS1 9-Axis DOF Specs

      • 3 acceleration channels, 3 angular rate channels, 3 magnetic field channels
      • ±2/±4/±8/±16 g linear acceleration full scale
      • ±4/±8/±12/±16 gauss magnetic full scale
      • ±245/±500/±2000 dps angular rate full scale
      • 16-bit data output
      • “Always-on” eco power mode down to 1.9 mA
      • Embedded temperature sensor
      • Embedded FIFO
      • Position and motion detection functions
      • Click/double-click recognition

      Si7020-A10 Specs

      • Precision Relative Humidity Sensor 
        • +-4% RH, 0-80% RH
        • 0 - 100% RH operating range
      • High Accuracy Temperature Sensor
        • +-0.4C, -10 to +85C
      • Factory Calibrated
      • Integrated on-chip heater
      • Excellent long term stability

      Bosch BMP280 Barometric Pressure Sensor Specs

      • Pressure Range: 300 -> 1100 hPa (equiv to +9000 to -500m above/below sea level)
      • Relative Accuracy: +/- 0.12 hPa, equiv to +/- 1m
      • Absolute Accuracy: +/- 1 hPa
      • Absolute Accuracy Temperature: +/- 1.0C

      TAOS TSL2572 Ambient Light Sensor Specs

      • Approximates Human Eye Response
      • 45,000,000:1 Dynamic Range
      • Operation to 60,000 lux in Sunlight
      • Package UV Rejection Filter
      • Wide Magnetic Field Range (+/-8 Oe)
      • Low Power – Active: 200uA, Wait: 90uA, Sleep: 2.2u

      TinyDuino Power Requirements

      • Voltage: 3.0V - 5.5V 
      • Current: 5.1mA (Normal Mode).  Due to the low current, this board can be run using the TinyDuino coin cell option

      Pins Used

      • A5/SCL - I2C Serial Clock line
      • A4/SDA - I2C Serial Data line

      Dimensions

      • 20mm x 20mm (.787 inches x .787 inches)
      • Max Height (from lower bottom TinyShield Connector to upper top TinyShield Connector): 5.11mm (0.201 inches)
      • Weight: 1 gram (.04 ounces)
      NOTES
      • This TinyShield uses I2C communication and incorporates level shifters and a local power supply to ensure proper and safe operation over the entire TinyDuino operating voltage range up to 5V.
      • You can also use this shield without the TinyDuino – there are 0.1″ spaced connections for power, ground, and the two I2C signals along the side of the TinyShield to allow you to connect a different system.  Warning: Revision 4 boards have a mistake on the silkscreen, the pin marked VCC is actually SCL, the pin marked SCL is actually SDA, and the pin marked SDA is actually VCC. If you connect this up the way it is marked you will not damage the board.  
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      Customer Reviews

      Based on 1 review
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      R
      Ruslan
      For ambient air temperature, use a Wireling instead

      The shield works fine overall, but you can't get an accurate ambient air temperature reading out of this temperature sensor if used as intended (as a TinyDuino shield), because the shield sits right on top of the rest of the TinyDuino, and that gives off some serious heat, enough to make temperature readings unusable. For me this was the processor, the USB board and the Wi-Fi board. I wanted to make a Wi-Fi temperature sensor out of TinyDuino parts left over from my previous project, and failed spectacularly with this combo. Even after trying different arrangements of shields and insulating all of them (well, with tissue paper), the minor heat from all the parts is still enough to skew a reading from 22 C (reference thermometer) to 26 C (this shield), which is kind of critical because I needed this for climate control (in conjunction with a WiFi IR emitter). Same crazy skews with the humidity. You can't accurately compensate for the heating either, as the temp. difference is affected by internal heating cycles (including how frequently I was polling it thru WiFi), air movement around the sensor (windows open/closed), etc. Simply opt for the temperature sensor Wireling if you're after measuring the ambient air temperature. I'm doing some silly math to correct for the effect for now while I'm waiting for a proper production-ready WiFi temp sensor.