| Manufacturer | Shenzhen Robotlinking Technology Co., Ltd. |
|---|---|
| Part number | NB119 |
| Item Weight | 18 g |
| Parcel Dimensions | 8.51 x 8 x 2.31 cm; 18 g |
| Manufacturer reference | NB119 |
| Voltage | 3.35 |
| Measurement Accuracy | &;0.02° |
| Included components | 1pc Pre-Soldered GY-906 MLX90614 |
| Batteries Included? | No |
| Batteries Required? | No |
SHILLEHTEK Pre-Soldered GY-906 MLX90614 BAA Non-Touch Infrared Temperature Sensor Module for Arduino, Raspberry Pi, ESP32, and Other Microcontrollers
Purchase options and add-ons
- [PRE-SOLDERED & READY]: This module comes fully pre-assembled for quick installation, allowing you to instantly use the MLX90614 as a precise non-contact infrared sensor without extra wiring or soldering.
- [WIDE COMPATIBILITY]: Works seamlessly with Arduino, ESP32, and Raspberry Pi, making it ideal for projects requiring an arduino temperature sensor, temperature sensor arduino, or a raspberry pi temperature sensor for non-touch measurement.
- [NON-CONTACT MEASUREMENT]: The advanced thermal sensor technology in this arduino ir sensor provides accurate non-touch temperature detection, enabling safe and reliable readings for robotics, automation, and environmental monitoring.
- [HIGH-ACCURACY PERFORMANCE]: Built with a low-noise amplifier and 17-bit ADC, the MLX90614 delivers exceptional accuracy and stable results, making it a dependable ir sensor for medical devices, industrial systems, and research applications.
- [PWM & VERSATILE USE]: Supports a 10-bit PWM output for flexible integration with ir sensor arduino and microcontroller setups. Ideal for home automation, security, IoT, automotive, energy management, and various temperature-critical projects.
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designed for DIY projects in IoT, robotics,
and beyond. Embark on your journey with us.
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How we get our start?
We began our journey by engaging in DIY projects and soon recognized the potential to simplify aspects and instructions, aiming to enhance accessibility to IoT and robotics.
What makes our products unique?
Many of our products come pre-soldered, enhancing their ease of use and safety. Additionally, we offer comprehensive guides through blogs and videos to assist users in effectively utilizing these products.
Why we love what we do?
We enjoy showcasing exciting projects to our communities and aiding individuals of all ages in bringing their own projects to fruition.
Product information
Technical Details
Additional Information
| ASIN | B0CNM72R4L |
|---|---|
| Customer Reviews |
3.7 out of 5 stars |
| 鶹 Rank |
|
| Date First Available | May 19 2024 |
Feedback
Product Description
Our Brand
ShillehTek is a brand that values making electronics easy. We offer a wide array of easy-to-use electronics, many of which contain pre-soldered headers so that our users can focus on their applications rather than waste time getting set up. The sensors we offer are friendly to people of all ages. Whether you have children in the household and want to do a fun DIY project with them, or you are building serious applications, you will find our sensors useful. We continuously look for new electronics to help our customers and offer guidance in other online communities to help people learn about our products.
Infrared Sensor
Measure Temperature w Infrared
The MLX90614 operates by measuring the temperature emitted from an object by measuring its infrared radiation.
Without Contact!
Measure the temperature without having to touch the surface of the object!
Pre-Soldered
Can be plugged in right away with jumper wires to most microcontrollers.
Universally Compatible
This sensor is easy to use with just about any microcontroller that has an I2C interface, such as all Raspberry Pi, Arduino, and ESP32 models
Pre-Soldered MLX90614
The key feature of MLX90614 is that it is a contactless IR temperature sensor with high accuracy. So it can be used in industries to measure the temperature of moving objects like a rotating motor shaft. Due to its high accuracy and precision, it is also used in a wide range of commercial, health care, & household applications like room temperature monitoring, body temperature measurement, etc. It is also incredibly easy to set up with DIY projects for Arduino, Raspberry Pi, & other controllers.
Pair with Other Popular ShillehTek Pre-Soldered Sensors
Enhance your setup by pairing with our pre-soldered sensors available at our 鶹 store. Elevate your projects with seamless compatibility and precision, with easy-to-use low cost sensors.
Specifications
| Operating Voltage | 3-5V |
| Temperature Measurement Range | -70 °C to 380 °C |
| Accuracy | 0.5 °C Accuracy (0-50 °C) |
| Measurement Resolution | 0.02 °C |
| Interface | I2C Wiring works with Arduino, Raspberry Pi, ESP32, and other Microcontrollers |
| Soldering | Comes Pre-Soldered, pins are already attached to the module. |
| Field of View | 80° |
| Supply Current | 1.5mA |
| Output | Conveniently outputs digital values for temperature. |
| PWM Mode | The module PWM signal by default covers the range of -20C to 120C with an output resolution of 0.14C, but this default range can be adjusted via the I2C bus. |
Product details
- Parcel Dimensions : 8.51 x 8 x 2.31 cm; 18 g
- Date First Available : May 19 2024
- Manufacturer : Shenzhen Robotlinking Technology Co., Ltd.
- ASIN : B0CNM72R4L
- Manufacturer reference : NB119
- 鶹 Rank: #8,296 in Industrial & Scientific (See Top 100 in Industrial & Scientific)
- #37 in Temperature Probes & Sensors
- Customer Reviews:
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Customer reviews
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- 5 star4 star3 star2 star1 star4 star62%7%0%0%31%7%
- 5 star4 star3 star2 star1 star3 star62%7%0%0%31%0%
- 5 star4 star3 star2 star1 star2 star62%7%0%0%31%0%
- 5 star4 star3 star2 star1 star1 star62%7%0%0%31%31%
Top reviews from Canada
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- Reviewed in Canada on February 16, 2025Verified Purchasei by it to monitor the heat of my wood stove and it work great
easy to configure and install
- Reviewed in Canada on September 13, 2024Perfect for my raspberry pi
- Reviewed in Canada on December 11, 2025Verified PurchaseDid not work.
Top reviews from other countries
SethReviewed in the United States on January 8, 20241.0 out of 5 stars This isn't a sensor I would trust
The narrative: I hooked this up to my raspberry pi and was happy when I got it hooked up and outputting Celsius. I waved it around, tried it on my skin and could tell it was adjusting to temps as I would expect, but, as an American that is used to imperial, didn't really know what temps should be reading. So I went into my application and did a temp conversion `(cel) => cel * 9 / 5 + 32`. Running the program again I realized when I put the sensor up to my forehead for a second I was reading in the 80's. Looking at my program I realized I was flooring Celsius before putting it into my conversion, but it didn't account for more than 10 degrees. "Ok I have an idea": I have a temp probe that I've found to be very accurate, I will let the temp probe acclimate to the room temp and point the IR sensor at it. That is what my video shows, and you will see it doesn't quite line up. The second part of the clip I heated up the probe sensor and tried to let the IR sensor read it as it cooled down, but it was a good bit off. After I recorded the video I tried to collect my temperature again with the highest reading being at 35.5, but averaging closer to 34.8, I dropped that into google, 35.5c = 95.9f.The media could not be loaded.
The narrative: I hooked this up to my raspberry pi and was happy when I got it hooked up and outputting Celsius. I waved it around, tried it on my skin and could tell it was adjusting to temps as I would expect, but, as an American that is used to imperial, didn't really know what temps should be reading. So I went into my application and did a temp conversion `(cel) => cel * 9 / 5 + 32`. Running the program again I realized when I put the sensor up to my forehead for a second I was reading in the 80's. Looking at my program I realized I was flooring Celsius before putting it into my conversion, but it didn't account for more than 10 degrees. "Ok I have an idea": I have a temp probe that I've found to be very accurate, I will let the temp probe acclimate to the room temp and point the IR sensor at it. That is what my video shows, and you will see it doesn't quite line up. The second part of the clip I heated up the probe sensor and tried to let the IR sensor read it as it cooled down, but it was a good bit off. After I recorded the video I tried to collect my temperature again with the highest reading being at 35.5, but averaging closer to 34.8, I dropped that into google, 35.5c = 95.9f.1.0 out of 5 stars
SethThis isn't a sensor I would trust
Reviewed in the United States on January 8, 2024
Images in this review
BobKReviewed in the United States on December 28, 20235.0 out of 5 stars Works as advertised, easy to use
IR temperature sensors use the fact that warm objects radiate infrared light. IR intensity depends on the object’s temperature as well as its emissivity, which can range from 0.0 to 1.0. Many common materials have an emissivity of about 0.95, so this value is usually assumed. Large temperature errors can occur, however, for materials such as aluminum foil or tin (0.04), or brick (0.80), unless the assumed emissivity is changed. Charts of emissivity are easily found online.
The internet has lots of good information about the MLX90614 sensor. One of the best sources I saw is at lastminuteengineers dot com, which has useful background and implementation details for using the device with an Arduino.
The SHILLEHTEK GY-906 includes a voltage regulator and level shifters so it can be used safely with either 3.3 V or 5.0 V systems. For my application, I wanted to us an Arduino Uno (5 volts). The circuit is extremely simple requiring only four connections: ground, 5V, and two I2C pins (SCL and SCA). (See picture). For the Uno you can also use A5 for SCL and A4 for SDA.
I used Arduino IDE V2.x, and adding the required libraries is straightforward: in Library Manager search for “MLX90614”. Currently, seven libraries appear to support this device. I added the Adafruit library. The other libraries may give access to more advanced features of the MLX90614, but I didn’t check.
Once the library is added, two example programs become available. One of them is called “mlx_set_emissivity,” which you can use to initialize the device to any desired emissivity. If you don’t use this program, the default value is 0.95. The second example program is mlxtest, which measures the ambient temperature using an onboard sensor and also measures the remote object’s temperature based on detected IR intensity. These values are printed to the Serial Monitor. I don’t have a way to check accuracy, but the temperature estimates seemed reasonable.
Note that the device has a 90-degree field of view, which is quite broad. If you want to measure the temperature of a small object, you have to get very close or else surrounding temperatures get averaged in. For example, if the sensor is 1 ft away from a wall, it will measure the average temperature across a 2 ft diameter circle on the wall. This is not a negative; it’s just the way the device works.
Bottom line: the GY-906 is easy to use and it works perfectly. No negatives.
IR temperature sensors use the fact that warm objects radiate infrared light. IR intensity depends on the object’s temperature as well as its emissivity, which can range from 0.0 to 1.0. Many common materials have an emissivity of about 0.95, so this value is usually assumed. Large temperature errors can occur, however, for materials such as aluminum foil or tin (0.04), or brick (0.80), unless the assumed emissivity is changed. Charts of emissivity are easily found online.5.0 out of 5 stars
BobKWorks as advertised, easy to use
Reviewed in the United States on December 28, 2023
The internet has lots of good information about the MLX90614 sensor. One of the best sources I saw is at lastminuteengineers dot com, which has useful background and implementation details for using the device with an Arduino.
The SHILLEHTEK GY-906 includes a voltage regulator and level shifters so it can be used safely with either 3.3 V or 5.0 V systems. For my application, I wanted to us an Arduino Uno (5 volts). The circuit is extremely simple requiring only four connections: ground, 5V, and two I2C pins (SCL and SCA). (See picture). For the Uno you can also use A5 for SCL and A4 for SDA.
I used Arduino IDE V2.x, and adding the required libraries is straightforward: in Library Manager search for “MLX90614”. Currently, seven libraries appear to support this device. I added the Adafruit library. The other libraries may give access to more advanced features of the MLX90614, but I didn’t check.
Once the library is added, two example programs become available. One of them is called “mlx_set_emissivity,” which you can use to initialize the device to any desired emissivity. If you don’t use this program, the default value is 0.95. The second example program is mlxtest, which measures the ambient temperature using an onboard sensor and also measures the remote object’s temperature based on detected IR intensity. These values are printed to the Serial Monitor. I don’t have a way to check accuracy, but the temperature estimates seemed reasonable.
Note that the device has a 90-degree field of view, which is quite broad. If you want to measure the temperature of a small object, you have to get very close or else surrounding temperatures get averaged in. For example, if the sensor is 1 ft away from a wall, it will measure the average temperature across a 2 ft diameter circle on the wall. This is not a negative; it’s just the way the device works.
Bottom line: the GY-906 is easy to use and it works perfectly. No negatives.
Images in this review
ScottReviewed in the United States on January 7, 20245.0 out of 5 stars Easy to use with accurate results
Great sensor; operation couldn't be much simpler! It is trivial to hook up to an Arduino R4 Wifi board and quite accurate in my tests. I compared it with the laser-guided IR temp gauge and consistently saw measurements within about 0.2dg F of the same. The size is nicely compact as shown compared to a standard Sharpie marker in my included photo. The pin size and layout make connecting with standard breadboard jumper wires effortless, which makes this ideal for tinkering and projects.
To get started and quickly see what you're in for to use this, I've included a simple Arduino sketch based on the examples for the MLX90614 that works with this component. Install the Adafruit-MLX90614 Library from the Arduino Library Manager to use this sketch. This sensor ticked the right boxes for me, quick, simple, and effective!
#include <Adafruit_MLX90614.h>
Adafruit_MLX90614 mlx = Adafruit_MLX90614();
void setup() {
Serial.begin(9600);
while (!Serial);
pinMode(LED_BUILTIN, OUTPUT);
digitalWrite(LED_BUILTIN, LOW);
Serial.println("SHILLEHTEK Pre-Soldered GY-906 MLX90614");
if (!mlx.begin()) {
Serial.println("Error connecting to temp sensor. Check wiring.");
while (1);
};
digitalWrite(LED_BUILTIN, HIGH);
Serial.print("Emissivity = "); Serial.println(mlx.readEmissivity());
Serial.println("================================================");
}
void loop() {
Serial.print("Ambient = "); Serial.print(mlx.readAmbientTempC());
Serial.print("*C\tObject = "); Serial.print(mlx.readObjectTempC()); Serial.println("*C");
Serial.print("Ambient = "); Serial.print(mlx.readAmbientTempF());
Serial.print("*F\tObject = "); Serial.print(mlx.readObjectTempF()); Serial.println("*F");
Serial.println();
delay(500);
}
Great sensor; operation couldn't be much simpler! It is trivial to hook up to an Arduino R4 Wifi board and quite accurate in my tests. I compared it with the laser-guided IR temp gauge and consistently saw measurements within about 0.2dg F of the same. The size is nicely compact as shown compared to a standard Sharpie marker in my included photo. The pin size and layout make connecting with standard breadboard jumper wires effortless, which makes this ideal for tinkering and projects.5.0 out of 5 stars
ScottEasy to use with accurate results
Reviewed in the United States on January 7, 2024
To get started and quickly see what you're in for to use this, I've included a simple Arduino sketch based on the examples for the MLX90614 that works with this component. Install the Adafruit-MLX90614 Library from the Arduino Library Manager to use this sketch. This sensor ticked the right boxes for me, quick, simple, and effective!
#include <Adafruit_MLX90614.h>
Adafruit_MLX90614 mlx = Adafruit_MLX90614();
void setup() {
Serial.begin(9600);
while (!Serial);
pinMode(LED_BUILTIN, OUTPUT);
digitalWrite(LED_BUILTIN, LOW);
Serial.println("SHILLEHTEK Pre-Soldered GY-906 MLX90614");
if (!mlx.begin()) {
Serial.println("Error connecting to temp sensor. Check wiring.");
while (1);
};
digitalWrite(LED_BUILTIN, HIGH);
Serial.print("Emissivity = "); Serial.println(mlx.readEmissivity());
Serial.println("================================================");
}
void loop() {
Serial.print("Ambient = "); Serial.print(mlx.readAmbientTempC());
Serial.print("*C\tObject = "); Serial.print(mlx.readObjectTempC()); Serial.println("*C");
Serial.print("Ambient = "); Serial.print(mlx.readAmbientTempF());
Serial.print("*F\tObject = "); Serial.print(mlx.readObjectTempF()); Serial.println("*F");
Serial.println();
delay(500);
}
Images in this review
Mike KReviewed in the United States on January 4, 20244.0 out of 5 stars IR temp sensor in a fantastic little package
What a nice little IR temp sensor on a fantastic little easy-to-use, multi-voltage I2C module. I tested it on an Uno (pins A4, A5) with both the DFRobot and Adafruit libraries. You're able to set emissivity, and it'll tell you both the ambient temp and target object's temp. Both libraries provide a more convenient celsius reading, but the Adafruit library also has celsius->fahrenheit convenience functions built-in, if that's important to you. I didn't take a deep dive into how to interface with it beyond briefly looking at sources of those two libraries, so I can't comment on further capabilities not exposed by those libraries.
When I tested mine, it appeared to be high by a good 3-5 degrees F (accuracy is supposedly within 0.5C, or close to 1.0F at body temp). My wrist held up directly in front of it (distance matters) read over 101, and the ambient reading was over 5 degrees higher than a Govee room thermometer I had on my desk. I don't know if the sensor itself has some way to calibrate it directly. It's easy enough to do from my end and it seemed to be fairly consistent over the small range I tested in a very non-scientific way, but I'd want to test over a large range of known temps and I didn't have time for that. Also, the documentation warns against protecting the sensor from possible nearby heat sources because temp differences across the sensor will affect accuracy, so it could've been that. I also let the module and Govee settle next to each other over the course of about a half hour (photos attached were after a half hour), and by then, the difference in ambient temp was only a couple degrees Fahrenheit and the difference was still slowly dropping, so for all I know, waiting another half hour would've made ambient readings even more accurate. I couldn't find how that worked in the documentation I found, so I'm not really sure. I'll also note that when I tried using longer wiring to bring the sensor further away from nearby electronics (that backlit 1602 in particular), it actually increased the temp readings and I'm not sure why, and I took care not to handle it directly with my hands. Perhaps there was a slight voltage drop that impacted the sensor? I didn't check. Anyway, the combined inaccuracy along with not finding some of this important information in documentation was the reason to dock it a star. I'd hope to be within the stated 0.5c accuracy out of the box. Maybe I just got unlucky with a defective unit. I may test this again with a more reliable 5v supply and different setup in the future, so if I do, I'll update this review.
The second photo is when I brought a warm table lamp near it. The target object reading was very quick to respond. It does have a wide FOV (sensitivity for distance/size is 1:2), so you'll have to bring smaller target objects very close to get accurate readings. I'm assuming a lens could help if you wanted a different FOV.
Considering my unit was a little off, I'd give this module a somewhat hesitant recommendation. It's not the cheapest way to measure temps at $16/module, but it's far from being the most expensive way too. For a contactless solution, it's on the cheaper side, and those libraries along with being able to use it with both 5v and 3.3v supplies/signals make it incredibly easy to use for tinkerers. If my readings were a little closer to target, it'd be a glowing 5 stars.
What a nice little IR temp sensor on a fantastic little easy-to-use, multi-voltage I2C module. I tested it on an Uno (pins A4, A5) with both the DFRobot and Adafruit libraries. You're able to set emissivity, and it'll tell you both the ambient temp and target object's temp. Both libraries provide a more convenient celsius reading, but the Adafruit library also has celsius->fahrenheit convenience functions built-in, if that's important to you. I didn't take a deep dive into how to interface with it beyond briefly looking at sources of those two libraries, so I can't comment on further capabilities not exposed by those libraries.4.0 out of 5 stars
Mike KIR temp sensor in a fantastic little package
Reviewed in the United States on January 4, 2024
When I tested mine, it appeared to be high by a good 3-5 degrees F (accuracy is supposedly within 0.5C, or close to 1.0F at body temp). My wrist held up directly in front of it (distance matters) read over 101, and the ambient reading was over 5 degrees higher than a Govee room thermometer I had on my desk. I don't know if the sensor itself has some way to calibrate it directly. It's easy enough to do from my end and it seemed to be fairly consistent over the small range I tested in a very non-scientific way, but I'd want to test over a large range of known temps and I didn't have time for that. Also, the documentation warns against protecting the sensor from possible nearby heat sources because temp differences across the sensor will affect accuracy, so it could've been that. I also let the module and Govee settle next to each other over the course of about a half hour (photos attached were after a half hour), and by then, the difference in ambient temp was only a couple degrees Fahrenheit and the difference was still slowly dropping, so for all I know, waiting another half hour would've made ambient readings even more accurate. I couldn't find how that worked in the documentation I found, so I'm not really sure. I'll also note that when I tried using longer wiring to bring the sensor further away from nearby electronics (that backlit 1602 in particular), it actually increased the temp readings and I'm not sure why, and I took care not to handle it directly with my hands. Perhaps there was a slight voltage drop that impacted the sensor? I didn't check. Anyway, the combined inaccuracy along with not finding some of this important information in documentation was the reason to dock it a star. I'd hope to be within the stated 0.5c accuracy out of the box. Maybe I just got unlucky with a defective unit. I may test this again with a more reliable 5v supply and different setup in the future, so if I do, I'll update this review.
The second photo is when I brought a warm table lamp near it. The target object reading was very quick to respond. It does have a wide FOV (sensitivity for distance/size is 1:2), so you'll have to bring smaller target objects very close to get accurate readings. I'm assuming a lens could help if you wanted a different FOV.
Considering my unit was a little off, I'd give this module a somewhat hesitant recommendation. It's not the cheapest way to measure temps at $16/module, but it's far from being the most expensive way too. For a contactless solution, it's on the cheaper side, and those libraries along with being able to use it with both 5v and 3.3v supplies/signals make it incredibly easy to use for tinkerers. If my readings were a little closer to target, it'd be a glowing 5 stars.
Images in this review
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Product Summary: SHILLEHTEK Pre-Soldered GY-906 MLX90614 BAA Non-Touch Infrared Temperature Sensor Module for Arduino, Raspberry Pi, ESP32, and Other Microcontrollers
From ST SHILLEHTEK
3.7 out of 5 stars, 33 ratings
Customer reviewsAbout this Item
- [PRE-SOLDERED & READY]: This module comes fully pre-assembled for quick installation, allowing you to instantly use the MLX90614 as a precise non-contact infrared sensor without extra wiring or soldering.
- [WIDE COMPATIBILITY]: Works seamlessly with Arduino, ESP32, and Raspberry Pi, making it ideal for projects requiring an arduino temperature sensor, temperature sensor arduino, or a raspberry pi temperature sensor for non-touch measurement.
- [NON-CONTACT MEASUREMENT]: The advanced thermal sensor technology in this arduino ir sensor provides accurate non-touch temperature detection, enabling safe and reliable readings for robotics, automation, and environmental monitoring.
- [HIGH-ACCURACY PERFORMANCE]: Built with a low-noise amplifier and 17-bit ADC, the MLX90614 delivers exceptional accuracy and stable results, making it a dependable ir sensor for medical devices, industrial systems, and research applications.
- [PWM & VERSATILE USE]: Supports a 10-bit PWM output for flexible integration with ir sensor arduino and microcontroller setups. Ideal for home automation, security, IoT, automotive, energy management, and various temperature-critical projects.
Product description
- Simple Integration (Solderless): Experience effortless setup with the pre-soldered GY-906 MLX90614 BAA Non-touch Infrared Temperature Sensor Module. Just plug it into any compatible pins or breadboard to start seamlessly incorporating temperature data into your projects.
- Precise Non-Contact Monitoring: Benefit from accurate non-contact temperature readings, covering a wide range to meet your project's specific requirements. Whether it's measuring the temperature of a surface or an object, the GY-906 ensures reliable data acquisition with precision.
- Compatibility Across Platforms: Seamlessly integrate the GY-906 into your projects, as it is compatible with various microcontrollers such as Arduino, Raspberry Pi, and others. This versatility makes it suitable for a wide range of applications, ensuring compatibility with your existing setup.
- Durable and Stable: Engineered for long-lasting reliability, the GY-906 MLX90614 BAA module is designed to withstand the rigors of continuous use. Count on its durability and stability for consistent and precise temperature readings over extended periods, making it an excellent choice for long-term temperature monitoring solutions.
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