View articles on the set-up and proper use of MaxBotix Inc. Sensors
When providing support, our technical support team may determine that further testing at our facility is the best way to help resolve the issue that you are facing. At this point, they will start the Return Merchandize Authorization (RMA) process. This article will explain what you can expect as your ultrasonic sensor travels through our RMA process.
This article is a quick start guide that compiles information about sensor use. This is a compilation of eight (8) articles to help you through the process of selection, set-up, and troubleshooting.
I2C circuits allow users to simplify advanced multi component circuits. However, these circuits are not always the easiest to use. This article will guide you through the process of troubleshooting your I2C circuits.
The analog envelope output is the log compressed voltage output of the acoustic return signal, which provides users with the ability to see the internal workings of the sensor. This output allows users the ability to easily verify the overall operation of their system application.
This article discusses tips on hardwiring your sensor and shows proper steps for soldering connectors and headers to a MaxBotix Inc., sensor. Included are step-by-step instructions for soldering and desoldering the right way to avoid damage.
This article discusses the effects of salt water on electronics, PCBs, and sensors. Further, the article explains the inhibition of sensor operation with examples of salt damage, and shows the neutralization process of salt water. If you have questions about how salt water affects electronics, please contact us.
Technical support services help solve sensor problems, wiring, and mounting as well as application-based sensor selection. Technical support for MaxBotix Inc., may be delivered over the phone (218-454-0766 ext 2), by e-mail (email@example.com), or by the contact tab on the MaxBotix Inc., webpage.
While there are numerous types of splice kits and wire connectors available, being able to properly solder wires, and the ability to weatherproof the new splice will save time, money, and frustration. This article will guide you on the right path to learning a new skill by outlining the proper technique to splice wires and create a weatherproof seal to protect outdoor electronics.
This article discusses tips on hardwiring your sensor and shows proper steps for soldering connectors and headers to a Maxbotix Inc., sensor. Included are step-by-step instructions for soldering and desoldering the right way to avoid damage.
An oscilloscope displays electrical signals as they change over time. Understanding the operation of an oscilloscope allows for in depth examination of a circuit and/or electrical components. Oscilloscopes measure noise levels, cycle frequency, and other electrical specifications of a circuit. This guide covers the basic use and features of an oscilloscope.
Finding an average or standard data value can be a useful way to understand the underlying trends of your data. Averages help you look past random fluctuation and see the central trend of a data set.
We focus on in-air ultrasonic detection, however, a number of our customers have expressed interest in using our ultrasonic sensors underwater. While this is feasible, it is not without its challenges.
When designing an application that places an ultrasonic sensor in a visible location, users may wish to conceal the sensor for aesthetic purposes. Additionally, users may desire to hide the sensor to discourage individuals from tampering with the sensor. This article covers several methods that you may use to conceal a sensor.
Many customers have requested the option to mount an ultrasonic sensor in a pipe. During the testing and development cycle, we discovered a number of considerations and requirements that must be met for the application to be successful. When all of these are met, a user may be able to achieve the desired level of success for measuring the liquid level inside of a pipe.
Welcome to a series of articles that walks you through the complete process of integrating an ultrasonic sensor into your application. These articles are packed with valuable information and tips to help you complete a successful ultrasonic sensor implementation.
MaxBotix® utilizes ultrasonic technology to provide ranging solutions for your various applications. The use of ultrasonic technology enables you to detect objects despite their visual characteristics.
MaxBotix® offers a number of sensors with 10 meter ranging capability to meet the needs of many long range sensing application. MaxBotix® continually works to press these limits by pursuing new technologies.
When you use a rugged WR sensor from MaxBotix® Inc., the sensor pin out is exposed allowing you to attach wires and equipment to the sensor. While leaving the pin out open provides greater flexibility in how you choose to connect to the sensors, it can leave the sensors exposed to the weather in some applications. If your mounting requires you to protect the back of the sensor from damage, you must seal the sensor pin out against rain and other potential hazards. For users that want to purchase a fully sealed sensor, the wire attach option is a great choice.
When choosing an ultrasonic sensor it is very important to be aware of the surrounding environment. This is a key factor and the first consideration when selecting a sensor. This requires looking around the environment that your sensor will be exposed to which can be as simple as the outdoor elements or as complicated as the type of people or animals that will be in the environment with the sensor.
Sometimes when using an ultrasonic sensor, users experience detection of unwanted objects that appear outside the expected beam pattern. These types of detections are the result of reflectors present in the environment. Corner reflectors can be surprisingly small, yet present a large reflection back to the sensor.
Some examples of common corner reflectors follow: a book shelf along a wall, a curb in a parking lot, a 1/2” wide seam in a concrete floor, internal bracing in a bin, or the inside corner of a doorway in a narrow hall. Each of these examples can create a corner reflector that may cause unwanted detections.
This article is written to assist in configuring I2C-MaxSonar sensors that were shipped after 10/29/14. We have updated our I2C-MaxSonar sensors to support faster speeds and work with the current Arduino Wire() library.
MaxBotix Inc., sensors have been successfully used on a number of multi‑copters. Even so, many users have had issues getting the sensors to operate reliably. Sensor operation on a quad‑copter is a challenging environment for an ultrasonic sensor to operate reliably.
USB-ProxSonar®-EZ™ Computer Configuration
MaxBotix Inc., has released USB‑MaxSonar ultrasonic sensors. The USB‑MaxSonar ultrasonic sensors feature an easy to USB interface that uses a standard Micro-B USB cable to connect to a computer.
Remote monitoring for the MaxSonar is easily available with the help of a bridge device such as the IoBridge IO-204. It has become simpler to integrate a MaxSonar into applications like measuring tide level or fuel level. The IoBridge IO‑204 module allows for remote sensing over the internet. All that is needed is a MaxSonar of preference, the IO-204, high-speed internet connection, and a power source for the IO‑204.
MaxBotix® Inc., products are not authorized for use as critical components in life support devices or systems.
MaxBotix® Inc., holds full patent status on the MaxSonar® line of ultrasonic rangefinders (patent 7,679,996). At this time, we do not issue licenses for use of our MaxSonar® product line circuits or software. MaxBotix® Inc., provides circuit information on our MaxSonar® line in our data sheets so our customers can understand the basic circuitry operation of our sensors.
Although the LV-MaxSonar®-EZ™ and XL-MaxSonar®-EZ™ sensors were designed for "protected indoor environments", the LV-MaxSonar®-EZ™ and XL-MaxSonar®-EZ™ sensors has been used outdoors in very rugged environments.
Many sensor applications require the user to detect people in an environment. MaxBotix® Inc., provides ultrasonic sensors that reliably detect people, and our sensors have been installed in a large number of people detection applications. Your application has the best chances of success when you put careful consideration into the sensor selection process.
All the MaxSonar sensors, by default, will operate in a free run mode. What this means is the sensor will continue to range until power is removed from the sensor. This is generally the easiest way to operate in a single sensor setup.
Troubleshooting the MaxSonar Sensor Family
Our sensors are improved to not allow unstable readings. Occasionally unstable range readings occur. Within this tutorial we will explain how to identify, trouble shoot, and eliminate the cause of unstable range readings. This will work for all lines of sensors
Connecting The MaxSonar® to a Computer
The MaxSonar® can be directly interfaced to be used with your PC, if you have a PC with a DB9 Serial. Connecting the sensor to a computer allows the user to see range readings that have already been processed to distance using RS232.
Finding Distance from Pulse Width (Pin 2)
All of the MaxSonar sensors have an output waveform that is a pictorial representation of distance measured. For the majority of our sensors that waveform output is a pulse width. Unlike analog voltage, pulse width does not scale with power input.
Finding Distance from Analog Voltage (Pin 3)
The Analog Voltage pin on the MaxSonar family of sensors has been the most popular output for our users. All of the MaxSonar sensors have this output included. This guide will give a look into how to use it for obtaining the distance to the target being detected.
Chaining MaxSonar Sensors
When using a single sensor typically it is possible to just let it range continuously in free run mode. This method is very easy and works very well.
MaxSonar Beam Patterns
MaxBotix Inc provides beam patterns for all of our sensors to assist users in choosing the correct sensor for their application. The beam plots provided are approximations to target sizes and distance. Though our beam plots are accurate for the sensor and may differ slightly from sensor to sensor for each part number.
MaxSonar Code Examples
Here are several programming samples we have tested at our facility. They include:
a code example for BasicX, and BX24p. a code example for the Basic Micro, Atom.;
a code example using Wright Hobbies, DevBoard-M32 (AVR using Bascom).;
and a code example using Parallax, Basic Stamp BS2.
An Easy to Follow Guide
This guide is serves as an easy to use set-up guide for the LV‑MaxSonar‑EZ Ultrasonic Sensor. MaxBotix Inc., is excited to provide this guide which is designed to assist you in using your MaxSonar sensor for the first time!
The MaxBotix Inc., HRLV-MaxSonar-EZ1 (MB1013) makes the perfect robot sensor for robot pole finding, navigation, distance sensing, direction, and alignment. This sensor provides your robot with real time information about its environment that can aid in the navigation around and to obstacles. Using two sensors on your robot will provide an easy and accurate method of pointing your robot directly toward a distant object.