In a large part of the technological processes taking place in many factories and other objects of an industrial nature, include the monitoring of the correctness and effectiveness of the results of the process in real time in accordance with its design settings. An example of such a process is robotic production of moving vehicles, where in addition to ensure the required strength of the material requires a complete repetition of the size of the individual elements within tolerance. One of the tools which are used in this process are digital distance sensors.
Module with proximity sensor and light intensity sensor, based on a system APDS9960. It detects objects at a distance of up to 100 mm. It has a resolution of 16-bits. It communicates via I2C bus. It is powered with the voltage from 2.4 V to 3.6 V.
Digital sensor, connecting the proximity measurement via method of time-of-flight, and the ability to measure the intensity of ambient light. It works in a range from 5 mm to 200 mm. It communicates via the I2C bus (TWi), it is powered with the voltage from 3 to 5 V.
Digital sensor, connecting the proximity measurement using the method of time-of-flight and the ability to measure the intensity of ambient light. The working range is up to 400 cm with a resolution of 1 mm. It communicates through the I2C bus (connector QWIIC), it is supplied with the voltage from 2.6 to 3.5 V.
Accurate, laser distance sensor operating in the range from 0.05 to 40 m with an accuracy of 0.025 m. The supply voltage is from 4.75 V up to 5.5 V. The device is communicating via interfaces: I2C or PWM.
Digital sensor, connecting the proximity measurement using the method of time-of-flight. It works in range of up to 2 m with an accuracy of +/- 10%. It communicates via the I2C bus (connector QWIIC), it is powered with the voltage of 3.3 V.
A digital sensor that combines the ability to measure proximity IR and measure the intensity of ambient light. The module allows to detect obstacles in the range of 0 to 20 cm. Communicates via the bus I2C (QWIIC connector), it is supplied with the voltage 3.3 V.
Digital proximity sensor performs the measurement with the method of time-of-flight. It operates in the range of from 3 to 200 cm with accuracy of +/- 3%. It communicates via the I2C bus, it is supplied with the voltage from 3.3 to 5 V.
Module from the Grove series is based on a reflective sensor ITR9909. It consists of LED emitting the infrared light and phototransistor of high sensitivity. It is supplied with the voltage of 5 V. The range is from 75 to 400 mm. It has a digital output, making it compatible with most commissioning modules, including Raspberry Pi and Arduino.
The reflective module with a transmitter and an infrared receiver, equipped with a digital output. It works with a voltage from 3.3 V to 5 V. It enables the detection of obstacles in the range from 2 to approx. 40 cm. Based on NE555 chip.
A digital proximity sensor which is doing the measures with the Time of Flight method. It works in the range of up to 1000 mm. It communicates with the I2C interface. It is working with the voltage from 3 V to 5 V.
Miniature digital proximity and light sensor from OSRAM. It detects objects at a distance of up to 160 mm and also light in the range from 0,0022 lx to lx 73000. It has a built in IR transmitter. It communicates via an I2C bus, it operates with a maximum voltage of up to 4.5 V.
Digital proximity sensor with Hall effect, it has a cable with the length of 114.5 cm and nuts for facilitating the mounting. It detects the magnetic objects at a distance of up to 10 mm. It is powered with the voltage from 5 V to 24 V.
The sensor is based on a system MAX30105 and allows for the determination of the distance, pulse, smoke, and even blinking of an eye. It has 3 LEDs and a very responsive detector of photons. It communicates through an I2C interface. It works with voltages of 3.3 V and 5 V.
Proximity sensor, operating in the infrared range. It has a permanent amplification. This version of high brightness, consumes around 16 mA when powered at 5 V. The sensor operates at a distance of up to 30 cm, it has a digital output.
The Doppler radar-based system BGT24LTR11 and controller XMC1302 with a processor ARM Cortex-M0. Allows accurate distance measurement and movement detection using radar technology. The device uses a physical phenomenon of the Doppler effect, analyzing the frequency of the waves generated and received by the device using antennas for RX and TX.
Digital rangefinder VL6180 operating in the range of up to 10 cm. It communicates via the I2C bus, it operates with a voltage of 2.8 V. In this sensor, the distance is defined basing on the measuring the time of the beam of light, which gives greater accuracy and resistance to interference.
Small digital distance sensor using laser to measure IR, the range of the sensor is adjustable. Distance it can detect objects depends on the color of its surface, for the black surface from 15 cm to 60 cm, and white 40 to 140 cm. The sensor is supplied with the voltage from 4.5 V to 5.5 V.
Proximity sensor, operating in the infrared range. It has a permanent amplification. This version of high brightness, consumes around 16 mA when powered at 5 V. The sensor operates at a distance of up to 60 cm, it has a digital output.
The module is equipped with a sensor TMG39931, which is designed to measure light, color and distance, and also recognizes gestures. On the Board is Grove connector, providing a simple connection of the module with base plate for Arduino. For communication it uses the popular interface I2C. The module operates from a voltage of 3.3 V or 5 V.
Leddar M16 is an advanced distance sensor, consisting of 16 separate modules. It is characterized by rapid and accurate measurement in the range from 0 to 100 m with the accuracy of up to 5 cm and emition of the beam in the range of 95 °.
One of the most commonly used types of distance sensors laser sensors. The principle of operation of such sensors is a directional emission of the laser beam. In automation, control, measurement and protection, laser sensors provide information about the presence of an object in a stable state of attention and its colour, brightness, size and shape. The output of a laser beam system equipped with a temperature compensation, which allows to increase the measurement accuracy. Laser sensors are part of the construction of several industrial applications and systems from hacking. Success can also serve as sensors in Autonomous intelligent robots - then in case of detecting obstacles at a distance that exceeds the pre-set software threshold is, for example, 2.5 cm, the sensor sends the information to the appropriate logic state on the digital input into the Arduino, and the robot performs the transmission in accordance with the program code necessary maneuvers to prevent a collision with the external object previously detected using the laser sensor.
Time-of-flight is one of the methods that is used in the sensor. Method time-of-flight is to measure the time difference between beginning of signal transmission from the sensor until the return beam of this light, after reflection from the object back to the sensor. In this method can be used with various types of signals (also called signals nośnymi) - the most common is the use of light signals and sound effects, but the most preferred is the use of sensors to infrared light, given the large range, high speed and no danger of damage to the eyes of strangers. In addition, the sensors on the IR is characterized by low susceptibility to interference from the outside and work very well in different light conditions of the environment. Distance sensors using the technology of time-of-light are useful elements in many devices. Autofocus in cameras booster during ascent and landing unmanned aircraft, warning system for preventing collision of vehicles or robots, automation budynkowa - gesture recognition for touch-free adjustment of the intensity of the lighting, automation equipment, sanitary equipment, automatic calculation of product, IoT devices and more are just some applications of sensors time-of-light.