We first met Easton LaChappelle four years ago when he was only 17-years-old. Easton took us by surprise as a self-taught maker who set his mission on creating brain-powered prostheses powered by Digi’s XBee RF modules. Using 3-D printing and Digi XBees, Easton created what the market so desperately needed, a prosthetic that sold for less than $400, robotic nonetheless.
Easton not only taught himself but found the most useful tools to progress his mission. He used tools and “how to” resources he found in online communities to set himself free from limitations that often hold others back.
We weren’t the only ones to take notice. Today, at 21-years-old, Easton has worked with NASA on The Robonaut, and he’s now working with Tony Robbins, Microsoft, and others to make his dream come true. His company, Unlimited Tomorrow, focuses on making life-changing robotic limbs available and affordable for those who need it most.
It all started when he met a little girl with a prosthetic arm. He found out that her parents had to pay $80,000 for it—and not the ‘smart’ kind that Easton could then see was possible. Take a look at how far he’s come today:
“Easton is an absolute genius! He’s dreamed of transforming people’s lives through robotics since he was just 17 years old (I started funding him when he turned 18) and has turned his dreams into reality! Check out these life-changing results he’s creating with 3D-printed prosthetics!” Tony Robbins says.
Regardless of our age, we can all attest to the advancements the automobile industry has made throughout its history, but the Internet of Things (IoT) has accelerated this change even more with smart cars, hybrid and fully electric cars, and strides being made towards to self-driving cars. It is truly fascinating and our imaginations are sparked with automotive innovation on all scales from green transportation to open-source development platforms, like M2 by Machinna.
Macchina M2 is an open source automotive interface that allows car hobbyists, enthusiasts, and professionals the creative ability to program a device and service into the automotive aftermarket. This ‘one-to-many’ interface allows engineers to design a single device that will sync with different firmware and software architecture. The device includes an Arduino board, equipped with a USB port, LEDs, SD card slot, built in EEPROM, and is compatible with Digi XBee. This socket compatibility combined with the Digi XBee family footprint, users can embed cellular connectivity with Digi XBee cellular. This means makers can bypass complicated end-device certifications and provides end-users the option to upload and download live data. Check out theFirst Look: Macchina M2article on Hackaday for more software and hardware design details.
We are excited to partner with this project and our community to bring embedded cellular IoT innovation to the automotive industry. Watch the video below to see just how easy it is to connect Macchina to Digi XBee Cellular, and let us know what you think!
Mesh networking is a powerful way to route data over an RF network. Range is extended by allowing data to hop node to node and reliability and resiliency is increased by “self-healing,” or the ability to create alternate paths when one node fails or a connection is lost.
One popular mesh networking protocol is ZigBee®, which is specifically designed for low-data rate, low-power applications. Digi offers several products based on the ZigBee protocol. Additionally, Digi has developed a similar mesh protocol named DigiMesh®. Both ZigBee and DigiMesh offer unique advantages important to different applications. The following chart highlights these differences:
Node types and their benefits
Multiple: Coordinators, Routers, End Devices. End devices can sometimes be less expensive because of reduced functionality.
Single: One homogeneous node type, with more flexibility to expand the network. DigiMesh simplifies network setup and reliability in
environments where routers may come and go due to interference or damage.
Battery Deployed Networks
Coordinators and routers must be mains powered
All nodes are capable of battery operation and can sleep. No single point of failure associated with relying on a gateway or coordinator to
maintain time synchronization.
Over-the-air firmware updates
Most ZigBee devices have range of less than 2 miles (3.2 km) for each hop.
Available on XBee SX with range of up to 40+ miles for each hop.
Frame payload and throughput
Up to 80 bytes.
Up to 256 bytes, depending on product. Improves throughput for applications that send larger blocks of data.
Supported frequencies and RF data rates
Predominantly 2.4 GHz (250 kbps)
900 MHz (Up to 250 Kbps), 868MHz, 2.4 GHz (Up to 250 Kbps)
128-bit AES encryption. Can lock down the network and prevent other nodes from joining.
Both 128 and 256-bit AES encryption. Can lock down the network and prevent other nodes from joining.
You might remember our post about the XBee product turned Indiegogo superstar last year–Plexidrone. Well, there’s another XBee related Indiegogo campaign making headlines. Tinylab is a prototyping platform, developed by Bosphorus Mechatronics, simplifying IoT development with an all-in-one Arduino-based solution.
Tinylab reduces the need to stack multiple Arduino shields, pull out the breadboard and jumper wires, or hunt down that spare LTH sensor in your drawer. This flexible and extensive development board supports Arduino and other development environments, hosts 20 Digital I/O, and additional sensors come pre-attached. And, perhaps most exciting, is the support for a number of wireless technologies like XBee, Bluetooth, or Wi-Fi with the ESP8266 chip as seen in the graphic below.
The Indiegogo campaign got off to a great start and Bosphorus Mechatronics quickly exceeded their goal of $25,000. The crew is shipping development kits to their campaign supporters in May and one level of support will even earn contributors a development kit that includes XBee RF modules.
Also, to demonstrate the board’s capabilities, the team at Tinylab created an wireless lighting demo. The video is showing wireless control of a lightbulb with commands sent over XBee. Check out the video below.
The mbed platform is a popular tool for engineers developing new Internet of Things devices. It is both a platform and operating system for internet-connected devices based on 32-bit ARM Cortex-M microcontrollers. ARM mbed provides rapid development, ease of use, efficiency, security features, and support for a wide range of add-on components including Digi’s wireless solutions. Our team of XBee experts has created a special library to easily connect mbed projects using XBee radios.
The new library supports XBee 802.15.4 and XBee ZigBee modules so developers are able to create simple point-to-point projects or complex mesh networks for their devices. On the mbed website you can find detailed instructions on how to implement the library into your mbed device.
The open source movement and strong maker community has led to the creation of a number platforms that give developers a quick and efficient way to create a proof of concept, prototype, or even a final product. Here a few especially handy hardware platforms for developing XBee projects that we think you might find helpful.
The Waspmote is a sensor mote that gives developers a simple way to create wireless sensor networks connected over XBee. The mote supports all the same network topologies as XBee, so it is possible to create complex mesh networks as well as simple point to point communications. In addition to network flexibility, the motes primary feature is reduced power consumption, which makes it ideal for sensors running on battery.
What makes the Waspmote especially awesome is the fact that Libelium has developed their own sensor boards that plug directly into the Waspmote–eliminating the need to solder anything or dust off your box of breadboards and jumper wires. They have industry specific sensors boards that are equipped with the sensors needed for a specific applications like Smart Water, Agriculture, Smart Cities, among many others. Visit the Libelium home page to learn more about the Waspmote.
The Arduino FIO board was created by Shigeru Kobayashi and SparkFun Electronics in an effort to simplify the process of making a wireless Arduino project. With connections for a LiPo battery and an XBee socket right on board, the board has everything you need to create anything from a lightning sensor to a programmable swarm of robots.
Apitronics is an open platform that enables farmers to collect sensor data via connected sensors deployed throughout farms, greenhouses, and gardens. The data is collected from remote nodes placed around the farm and is aggregated at a central hub. The data can be accessed at a local web page and helps farmers monitor environmental conditions, which allows them to make more informed management decisions.
Taking your prototype to production is an issue many start-ups and design teams struggle with. As Arduino has become nearly synonymous with the word prototype, engineers are increasingly in need of an efficient way to turn their Arduino based prototype into a scalable product. DuinoPRO is aimed at the lean start-up community or anyone looking to leverage the highly supported Arduino platform to create a prototype they plan to scale to relatively large volumes in a surface mount facility.
Maybe we Missed Your Favorite?
Did we miss one of your favorite XBee development tools? Never fear. Just leave a comment below or let us know on Twitter at @XBeeWireless and we will add it to the post!
When you’re at work, how do you typically get in touch with your family if you need to contact them?
You most likely call or send a text message from your cell phone. For the most part, you have your phone on you, and you know they have their phone on them and are accessible.
What if, instead, your family is the Texas State Guard and you’re managing a natural disaster? Your soldiers are out in the field providing relief and support–how do you get in touch? How do you keep track of their location? Certainly amidst the noise, weather conditions, working environment, and limited cell coverage there aren’t too many options.
Damon Williams has experienced this issue firsthand as a Sergeant for the Texas State Guard.
“For the longest time I wasn’t able to monitor where my soldiers actually were. There was no way to know exactly where they were located.”
By day, Damon is a senior firmware engineer at Molex. Using his technical background, he set out to solve the issue he faced while serving his community: how can a soldier’s location easily be communicated from the field?
Damon entered Molex’s Innovation Challenge, an internal competition where employees compete against one another in a bid for the next great Molex innovation.
A typical entrant in the Molex Innovation Challenge creates a presentation and some design mock ups. Having personal stake in the game, Damon turned his idea into a reality. As a long-time maker, Damon knew the XBee product line well and realized the XBee-PRO 900HP would enable him to use mesh networking. He developed a working prototype of 30 personal GPS trackers.
“This is something I believe in. I have soldiers in the field. This is something that we’re constantly up against. For example, right now my bags are packed and in my truck. We’re on alert because of the flooding in Texas.”
An individual carries one of the small trackers. Their exact location can be seen in real time from the command center through video using a Google Maps overlay where pins represent the trackers.
Damon says that this system wouldn’t be possible without the XBee-PRO 900HP. “In addition to using mesh networking for reliability, I went with the 900 for the range. Our packet sizes are very small, so we have real quick blips for data transmission.”
Ability for the system to go into sleep mode to conserve power
Small packet delivery
Accelerated system design speed
Integration of all of the modules together
Maestro GPS module
Powered by two AAA batteries, the trackers can run for four days (96 hours) with updates every 90 seconds–or for up to two weeks with hourly updates. The trackers are as small as a couple packs of gum.
Although the prototype didn’t take first place in the Innovation Challenge, Damon has implemented the system for his own team and others. He has personally funded and built 130 trackers that are out in the world today. The trackers are used by The National Guard and search and rescue teams including the City of Austin.
“Anytime someone goes down range they have a tracker on. I have a laptop that hooks up to a panel of video screens, and I have a satellite image. There’s a dot and name for every soldier. Commanders love it because they always know where their soldiers are,” Damon explained. “We had a soldier injure himself at night last year, because we knew where he was we could get help in a few minutes versus searching for hours.”
The system also works great for volunteers and first responders. He hopes it will catch on in other applications like firefighting, search and rescue and wide area damage assessment.
Koch Industries now Molex’s parent company, has also expressed interest in funding the project under its innovation division.
Today, with help from the XBee-PRO 900HP, Damon always has eyes on his family. He hopes that others will be able to do the same. For a complete look at the system check out the website: pointsgps.com.
This isn’t the first time the XBee has been used to save lives. Draganfly, a drone used by public safety agencies, selected the XBee-PRO 900HP too. After K-9 units were unable to locate a family lost in the woods while hiking, an infrared-equipped Draganflyer X4-ES unit was sent out to locate the family. Five units were purchased by the Royal Canadian Mounted Police in Nova Scotia and now respond to emergency response calls, crime investigations, traffic scene reconstruction and search and rescue operations. Draganfly is the first recorded civilian small Unmanned Aerial System (sUAS) to be credited with saving a life.
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