Schlagwort: Wearable Computing

  • Arduino and K-Way, with the support of Edge Impulse, team up for a new idea of smart clothing

    Arduino and K-Way, with the support of Edge Impulse, team up for a new idea of smart clothing

    Reading Time: 2 minutes

    Imagine the possibilities generated by integrating advanced AI and powerful sensors in to one of the most iconic outdoors jackets with a heritage that’s more than 50 years old. You could start sensing and interacting with the surroundings like never before.

    This is what we created here at Arduino: enclosing the Nicla Sense ME, the new sensory brain from Arduino, into the K-WAY jacket, powered with Edge Impulse AI, to sense the external world and imagine a new way to conceive smart clothing.

    The Nicla Sense ME is beautifully nestled in a custom silicone mold, attached to the iconic coloured zipper of the K-WAY jacket to help you program, monitor, and work with some of the most relevant environmental data that matters to you most. 

    The Nicla Sense ME on the K-WAY jacket recognizes in real-time whenever the air you’re breathing is polluted, can indicate changing weather conditions, and it communicates with you through a LED on the board or even a smart phone app.

    And what would you do with the same technology?
    If this question is intriguing to you, get ready and pitch your idea. Arduino, with the support of Edge Impulse, will select the best pitch ideas and send over a jacket and a Nicla Sense ME for developing your ideas and make them come true!

    The call for developers will officially open on October 18, be sure you won’t miss it!

    Website: LINK

  • This maker designed an interactive LED-lit dress inspired by Katniss Everdeen’s

    This maker designed an interactive LED-lit dress inspired by Katniss Everdeen’s

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    This maker designed an interactive LED-lit dress inspired by Katniss Everdeen’s

    Arduino TeamDecember 16th, 2021

    Inspired by Katniss Everdeen’s burning dress from the Hunger Games series, Cindy Li set out to create her own version that uses fabric-attached LEDs to both simulate fire when movement is detected and illuminate in other ways when a certain button is pressed.

    This light-up dress was based around two development boards: a Circuit Playground Bluefruit from Adafruit that handles the lights and an Arduino Nano RP2040 Connect, which connects to a sensor, some buttons, and a speaker for extra functionality. Li started building this project by sewing the Circuit Playground onto he fabric and then running a strip of individually addressable LEDs in an arch shape, with conductive thread tying it all together. Next, the Nano RP2040 Connect was wired to the speaker, buttons, and APDS-9960 sensor and placed within a custom-cut acrylic enclosure. Finally, another string of LEDs was wrapped around the bottom of the dress to act as the “fire” component. 

    Once the hardware was finished being sewn onto the dress, licjn moved to the programming step. Her dress has three modes: color matching which uses the APDS-9960 to sense color and recreate it on the LEDs, an “alarm system” that turns the lights red when close to something, and the fiery transformation that senses when the user is spinning and displays an orange glow underneath. As a bonus, a simple tag game was implemented which can be played with flashlights and gives the wearer a certain number of “lives” before they lose. 

    To see more regarding this interactive wearable project, you can read about it here on Instructables or watch Li’s demo below!

    Website: LINK

  • Trakcore is a Nano 33 IoT-based posture correction device

    Trakcore is a Nano 33 IoT-based posture correction device

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    Arduino TeamAugust 31st, 2021

    Poor posture is an epidemic for nearly anyone who spends an excessive amount of time sitting, and this can lead to a whole host of problems later in life. Some of these might include back pain, limited range of motion, and muscle tightness. Recognizing that his own posture was lacking, element14 user vlasov01 got to work designing and constructing a small wearable device for element14 Design for a Cause 2021 contest, which could help him alter his posture throughout the day to a more correct one. This project was dubbed the Trakcore, and it uses the sensors on the Arduino Nano 33 IoT to sense how a person is sitting or standing and then sends an alert when it needs adjustment. 

    Trakcore started with collecting large amounts of data that included positional data for both straight and curved spinal shapes. Next, this dataset was used to train a model within Edge Impulse’s Studio that could infer which position the user is currently in. Once the code to integrate the model with the IMU, vibration motor, LED, and BLE stack was finished, an app was created to receive notifications from the wearable device and display them.

    After adjusting some variables within the code and making the wearable ignore posture while the user is walking, the Trakcore was subsequently tested and performed quite well at notifying the wearer when their posture was incorrect. 

    You can read more about the Trakcore here.

    Website: LINK

  • Giving Google Glass a run for its money

    Giving Google Glass a run for its money

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    Arduino TeamAugust 27th, 2021

    Google rarely enters the hardware world and when they do, they receive a mixed reception. The smart glasses were very controversial when they first launched, due to privacy and fashion concerns. But the idea was a good one: a wearable computer that gave you a heads-up display (HUD) at all times. Unfortunately, even today’s Google Glass models are very expensive. That’s why this Redditor built their own DIY smart glasses using affordable components.

    The pair looks a lot like a bulkier version of Google Glass and they perform a similar function. The wearer gets a HUD positioned in front of one eye that displays useful information. In this case, the information comes from a separate device via Bluetooth. The software is still in development, but these glasses could theoretically display any information from a connected smartphone, such as navigation or text messages. The screen is monochrome and has a low resolution, but it is enough for basic graphics and text.

    The primary component is an Arduino Nano 33 BLE. That drives a 0.49″ OLED screen through an I2C connection. A lens and mirror project the screen onto a clear phone case lined with HUD film intended for cars. Power comes from a small 450mAh lithium-ion battery. The frame is off-the-shelf, but the enclosure for the electronics is a custom 3D-printed affair. It allows for adjustability, making the screen clear and readable. The software isn’t ready yet, but the STL files are available if you want to build your own DIY smart glasses.

    Website: LINK

  • This wearable device sends an alert whenever it detects a fall

    This wearable device sends an alert whenever it detects a fall

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    Arduino TeamJuly 2nd, 2021

    A dangerous fall can happen to anyone, but they are particularly dangerous among the elderly as that demographic might not have effective ways to get help when needed. Rather than having to purchase an expensive device that costs up to $100 per month to use, Nathaniel F. on Hackster wanted to build a project that harnessed the power of embedded machine learning to detect falls and send an alert. His solution involves the Arduino Nano 33 BLE Sense board, which not only has an integrated accelerometer but also contains Bluetooth Low Energy capabilities that lets the processor communicate with the accompanying mobile app. 

    Nathaniel trained his ML model on the SmartFall dataset, which allows the device to respond to a wide variety of falls and ignore non-harmful movements. Once training was completed, he was able to achieve an accuracy of 95%. The Nano 33 BLE Sense samples accelerometer data at 31.25Hz to match the dataset’s frequency, and it makes a prediction every two seconds. If a fall is detected or the built-in emergency button was pressed, the user has 30 seconds to deactivate the alarm, otherwise it sends a BLE message to the phone which in turn sends an SMS message to an emergency contact containing the current location. 

    Even though this DIY fall detector works well already, Nathaniel plans on making a custom PCB and extending the battery life for longer use time between charging. You can read more about his design here, and you can view his demonstration video below.

    [youtube https://www.youtube.com/watch?v=8DHjssAFuGg?feature=oembed&w=500&h=281]

    Website: LINK

  • Use your smartphone to control Wilson the IoT hat

    Use your smartphone to control Wilson the IoT hat

    Reading Time: < 1 minute

    Arduino TeamJune 21st, 2021

    Wearable displays are nothing new, but many of them lack that all-important “fun” element. That’s why OlivierZ over on Instructables created Wilson the IoT hat. The smart hat contains a large 232mm by 22mm flexible LED strip on its front that prominently shows rainbow text across a 71×7 LED matrix. The whole thing runs on a single 9V battery, which powers an Arduino Nano, HC-05 Bluetooth module, and LED matrix. All of these components are nicely tucked away within the top of the hat to prevent wearers from seeing unsightly wires. 

    Olivier wrote a simple app the connects to the HC-05 module with a single press of a button. Users are then able to type out a message and send it to the device where the letters scroll across the display with various effects applied. If people are sending undesirable messages repeatedly, there’s a blacklist function that enables blocking the problematic user(s). 

    Wilson is a great showcase of just how enjoyable creating interactive wearables can be. More details on the project and its accompanying app can be found in Olivier’s write-up here

    [youtube https://www.youtube.com/watch?v=2e4FJNInXrw?feature=oembed&w=500&h=281]

    Website: LINK

  • DiaFit is a customizable glucose monitor system based on the Nano 33 IoT

    DiaFit is a customizable glucose monitor system based on the Nano 33 IoT

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    Arduino TeamJune 2nd, 2021

    While diabetes is still very much a serious disease, medical advancements over the past few decades make it much easier to live with. Wearable glucose monitors in particular provide a convenient way for people to keep an eye on their blood sugar, so they can get the extra insulin that they need before they start feeling the effects of low blood sugar. DiaFit is a customizable glucose monitor system that gives people options and it relies on an Arduino Nano 33 IoT board.

    Most wearable glucose monitors available today, like the popular FreeStyle Libre 2, are small patch-like devices that stick to the skin. They connect through Bluetooth to a separate device that users can check to see their blood sugar levels. Those are often either bulky units that take up space in a purse or pocket, or wearable gadgets that resemble smartwatches. DiaFit is modular and gives people more options.

    The DiaFit system consists of a few individual modules and one of those, based on the Nano 33 IoT board, has an OLED screen that shows current blood sugar levels. Because DiaFit is modular, it is wearable in multiple ways. The team behind DiaFit created a wristband, a ring, a necklace, and an earpiece. People with diabetes could choose any of those and even switch between them as the situation demands. You might want to wear DiaFit as a necklace when at the office and then switch to the wristband when you go for a jog. DiaFit is still a prototype, but this technology could make it more convenient to live with diabetes.

    [youtube https://www.youtube.com/watch?v=Nf8CpJNg6P4?feature=oembed&w=500&h=281]

    Website: LINK

  • Channel your inner Wolverine with these 3D-printed, muscle-controlled bionic claws

    Channel your inner Wolverine with these 3D-printed, muscle-controlled bionic claws

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    Arduino TeamMay 1st, 2021

    In the fictional Marvel Universe, Wolverine has sets of claws that pop out of his hands as if they were natural parts of his body. While a seemingly fantastic concept, myoelectric sensors are able to pick up on muscle movements in order to illicit a response. YouTuber MERT Arduino & Tech decided to take this concept and build a pair of forearm-mounted claws.

    The wearable device senses muscle activation via a MyoWare muscle sensor, which sends information on to an Arduino Nano on a custom carrier board. Depending on the signal, it’s able to extend or retract claws, with the help of a servo motor and linkage system.

    The project looks like a lot of fun, and more information can be found in the video’s description below. It’s also not the first time we’ve seen some 3D-printed bionic claws — similar instructions are available in this Make: tutorial.

    [youtube https://www.youtube.com/watch?v=9pDfjxwZVqg?feature=oembed&w=500&h=281]

    Website: LINK

  • Finger Bend is a DIY textile flex sensor

    Finger Bend is a DIY textile flex sensor

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    Arduino TeamApril 13th, 2021

    You can turn on an LED with a button or switch, but what about by bending your finger? Willpower Studios’ textile flex sensor, dubbed Finger Bend, presents a method for such an interface.

    Inside the custom sleeve is a piece of piezoresistive stretch fabric, which is attached by copper threads to an Arduino Nano’s analog input pin. When a finger is curled, the light is then switched on and off again when straightened.

    While an LED is interesting, this concept could be taken much further, perhaps using multiple digits for more intricate control. Details and code for the project is available in Willpower Studios’ write-up.

    [youtube https://www.youtube.com/watch?v=y7PLuZBeTgk?feature=oembed&w=500&h=281]

    Website: LINK

  • This futuristic-looking device actively discourages you from touching your face

    This futuristic-looking device actively discourages you from touching your face

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    Arduino TeamApril 2nd, 2021

    For a variety of reasons, including potential virus transmission, it’s a bad idea to touch your face too often. If you need a little “help” to break this habit, then you might consider the STOP Face Touching Device by DesignMaker.

    The system takes the form of a very sci-fi-looking helmet, which monitors the area around the user’s face with four IR sensors. An Arduino Nano is used for control of the device, and when you do touch your face, it responds by smacking your forehead with a motor/spring device. It also increases the number of touches on an OLED display. 

    Between a slight amount of pain and the public shaming, perhaps your behavior will be modified. Alternatively, you can just check out the build/demo below for a bit of a laugh and maybe some inspiration!

    [youtube https://www.youtube.com/watch?v=HtR9yXh_85Y?feature=oembed&w=500&h=281]

    Website: LINK

  • This DIY watch works but for only a limited amount of time

    This DIY watch works but for only a limited amount of time

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    This DIY watch works but for only a limited amount of time

    Arduino TeamDecember 5th, 2020

    The Nano is one of our smallest boards, and as YouTuber Craft Channel has proven, it’s tiny enough to act as the brains of a wristwatch. This DIY wearable device features a nicely made wooden enclosure, with power supplied by a 1S 300mAh LiPo battery, and the face itself shown on a 1.3″ ST7789 display.

    Its lack of a real-time clock unit, along with a fairly limited battery, means that the watch will only work for a short time before needing attention. However, creator Craft Channel notes that the build is an experimental project, and it’s a great demo of what can be done with a short bill of materials and a bit of ingenuity!

    [youtube https://www.youtube.com/watch?v=Ie5rrqo5dIc?feature=oembed&w=500&h=281]

    Website: LINK

  • Student designs his own pair of smart glasses with a transparent OLED display and Arduino Nano Every

    Student designs his own pair of smart glasses with a transparent OLED display and Arduino Nano Every

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    Student designs his own pair of smart glasses with a transparent OLED display and Arduino Nano Every

    Arduino TeamJuly 24th, 2020

    For his school science fair, Mars Kapadia decided to take things up a notch and create his own pair of smart glasses.

    The wearable device, which went on to place in the state competition, uses a transparent OLED display to show info from Retro Watch software running on an Android phone. They’re controlled by an Arduino Nano Every with an HC-05 Bluetooth module to communicate with the mobile app. Power is provided via a LiPo battery.

    One unusual feature is that the darkened lenses can be flipped down for sun protection in outdoor environments, then up to allow easy viewing in darker areas. Kapadia demonstrates how his glasses work, plus discusses the technology used in the video below.

    [youtube https://www.youtube.com/watch?v=UJfCBOXrqYc?feature=oembed&w=500&h=281]

    Website: LINK

  • This Arduino-powered LED matrix mask responds to your voice

    This Arduino-powered LED matrix mask responds to your voice

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    This Arduino-powered LED matrix mask responds to your voice

    Arduino TeamJune 2nd, 2020

    When wearing a face mask nowadays, you can’t show expressions in the same ways that we’re all accustomed to. As a possible solution to this problem, programmer Tyler Glaiel decided to create a custom covering, with an 8×8 LED matrix that picks up his voice and imitates his mouth moving. It even allows him to smile by sensing when he makes a “pop” sound.

    The build is entirely self-contained, with an Arduino Nano, 9V power supply, and electret microphone embedded in the mask’s translucent black cloth.

    Instructions on how to make your own are available in Glaiel’s blog post, though he is quick to note that it’s not guaranteed to inhibit virus transmissions, and is meant as something of a novelty.

    Website: LINK

  • BiTipText enables text entry across two index finger-worn keyboards

    BiTipText enables text entry across two index finger-worn keyboards

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    BiTipText enables text entry across two index finger-worn keyboards

    Arduino TeamMay 5th, 2020

    Typing with your thumbs on a smartphone has become an everyday activity for many, but what if you could enter text by simply tapping on your index fingers? With BiTipText, that may soon be a reality. 

    The researchers’ prototype consists of an interactive skin overlay made out of flexible PCB material, allowing an Arduino Uno and MPR121 sensor chip to read capacitive signals from both digits. 

    In testing, users were able to enter text at over 23 WPM, with a 0.03% uncorrected error rate. Notably, the two-handed implementation means that software can determine not only the position of presses, but the sequence of left/right inputs to help with word interpretation.

    More details on the bimanual text input method can be found in the team’s paper here.

    [youtube https://www.youtube.com/watch?v=FzUTmGzAHQw?feature=oembed&w=500&h=281]

    Website: LINK

  • Nailz turns your fingernails into wearable input system for smart devices

    Nailz turns your fingernails into wearable input system for smart devices

    Reading Time: 2 minutes

    Nailz turns your fingernails into wearable input system for smart devices

    Arduino TeamMay 4th, 2020

    Researchers at UNIST in South Korea have developed a novel system for smart device input using touch-sensitive fingernails, called Nailz.

    As noted in the team’s paper, fingernails have long served as a site for body extension and are extremely accessible, making them a perfect unobtrusive input surface.

    The nail system. (Image: Lee et al.)

    144 thumb/finger gestures were identified for the setup, with 29 selected as being most practical. This method was then tested with 94.3 percent accuracy.

    The system is composed of flexible PCBs — glued to standard cosmetic artificial nails — along with an MPR121 capacitive sensing chip. All five nails are wired to a wrist-mounted MKR WiFi 1010 unit, which also features a BNO080 IMU for detecting movement. 

    More details on the project can be found here

    [youtube https://www.youtube.com/watch?v=O_uiL49IA2I?feature=oembed&w=500&h=281]

    Website: LINK

  • Give your memory a boost with Newrons

    Give your memory a boost with Newrons

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    Give your memory a boost with Newrons

    Arduino TeamJanuary 28th, 2020

    When you get a notification on your smartphone, more often than not, you’re doing something more pressing. You then silence the alarm, and perhaps forget about it. Nick Bild, however, has created a pair of smart glasses that take a new “look” at things by instead giving you a notification when you’re staring at an appropriate item.

    For instance, as demonstrated in the demo below, if your calendar says to “Go for a walk,” the Newrons would light up when you’re glancing at a pair of sneakers.

    The prototype is controlled by an Arduino Nano 33 IoT, which connects to the Google Calendar API over WiFi to view your schedule. Object recognition is taken care of with a JeVois A33 machine vision camera and notifications are shown on an LED.

    More details can be found in Bild’s write-up here

    [youtube https://www.youtube.com/watch?v=C8D3Lubc3Jo?feature=oembed&w=500&h=281]

    Website: LINK

  • 2D-RFID input at the tip of your fingers

    2D-RFID input at the tip of your fingers

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    2D-RFID input at the tip of your fingers

    Arduino TeamDecember 2nd, 2019

    Researchers at the University of Waterloo in Canada have developed a novel hand-based input technique called Tip-Tap that amazingly requires no batteries. 

    The wearable device uses a series of three custom RFID tags on both the thumb and index finger with half an antenna on each digit. When the fingertips are touched together, a signal is sent to the computer indicating where the thumb and index finger intersect, which is mapped as a position on a 2D grid.

    Usability experiments were carried out using an Arduino Mega, with both on-screen visual feedback and without. Possible applications could include the medical field, where Tip-Tap can be added to disposable gloves enabling surgeons to access a laptop without dictating inputs to an assistant or sterilization issues.

    [youtube https://www.youtube.com/watch?v=arvEd1tIPh4?feature=oembed&w=500&h=281]

    We describe Tip-Tap, a wearable input technique that can be implemented without batteries using a custom RFID tag. It recognizes 2-dimensional discrete touch events by sensing the intersection between two arrays of contact points: one array along the index fingertip and the other along the thumb tip. A formative study identifies locations on the index finger that are reachable by different parts of the thumb tip, and the results determine the pattern of contacts points used for the technique. Using a reconfigurable 3×3 evaluation device, a second study shows eyes-free accuracy is 86% after a very short period, and adding bumpy or magnetic passive haptic feedback to contacts is not necessary. Finally, two battery-free prototypes using a new RFID tag design demonstrates how Tip-Tap can be implemented in a glove or tattoo form factor.

    Website: LINK

  • Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

    Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

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    Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

    Arduino TeamNovember 4th, 2019

    A stretchable light-emitting device becomes an epidermal stopwatch.
    Image: Adapted from ACS Materials Letters 2019

    Imagine if your watch wasn’t mounted on your wrist, but was instead integrated into a sort of temporary tattoo on the back of your hand? Such an idea is now one step closer to reality, thanks to new research into alternating-current electroluminescent (ACEL) display technology.

    While normally such displays require well over 100VAC to produce sufficient brightness, scientists have worked to get this number down into the 10-35V range, allowing them to be used in much closer proximity to human skin. 

    To demonstrate this technology, the team constructed a 4-digit 7-segment display that can be applied to one’s hand, using an Arduino Mega and driver circuitry to turn it into a digital timepiece.

    More information can be found in the researchers’ paper published in ACS Materials Letters.

    Website: LINK

  • Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

    Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

    Reading Time: < 1 minute

    Check your run time on a stretchable electroluminescent stopwatch ‘tattoo’

    Arduino TeamNovember 4th, 2019

    A stretchable light-emitting device becomes an epidermal stopwatch.
    Image: Adapted from ACS Materials Letters 2019

    Imagine if your watch wasn’t mounted on your wrist, but was instead integrated into a sort of temporary tattoo on the back of your hand? Such an idea is now one step closer to reality, thanks to new research into alternating-current electroluminescent (ACEL) display technology.

    While normally such displays require well over 100VAC to produce sufficient brightness, scientists have worked to get this number down into the 10-35V range, allowing them to be used in much closer proximity to human skin. 

    To demonstrate this technology, the team constructed a 4-digit 7-segment display that can be applied to one’s hand, using an Arduino Mega and driver circuitry to turn it into a digital timepiece.

    More information can be found in the researchers’ paper published in ACS Materials Letters.

    Website: LINK

  • Experience the world like a cat with this whisker-style sensory extension

    Experience the world like a cat with this whisker-style sensory extension

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    Experience the world like a cat with this whisker-style sensory extension

    Arduino TeamJuly 2nd, 2019

    Imagine if you had whiskers. Obviously, this would make you something of an oddity in today’s society. On the other hand, you’d be able to sense nearby objects via the transmission of force through these hair structures.

    In order to explore this concept, Chris Hill has created a whisker assembly for sensory augmentation, substituting flex sensors for the stiff hairs that we as humans don’t possess. The sensors—four are used here—vary resistance when bent, furnishing information about their status to the Arduino Uno that controls the wearable device. Forehead-mounted vibratory motors are pulsed via PWM outputs in response, allowing the user to feel what’s going on in the surrounding environment.

    If this looks familiar, Hill is quick to credit Nicholas Gonyea’s Whisker Sensory Extension Wearable as the basis for this project. He hopes his take on things improves the original, making it lighter, more cost-effective, and easier to construct. 

    The purpose of this project was to focus on the creation of novel, computationally-enriched “sensory extensions” that allow for augmented-sensing of the natural world. My major effort with this project was devoted to the fabrication and implementation of sensory augmentations that will extend a sense through sensors and respond with a tactile output for the user. The intent is to enable anyone to fabricate their own sensory extensions, and thusly map intrinsically human/animal senses onto hardware. Effectively extending our senses in new and exciting ways that will lead to a better understanding of how our brain is able to adapt to new external senses.

    Website: LINK

  • Experience the world like a cat with this whisker-style sensory extension

    Experience the world like a cat with this whisker-style sensory extension

    Reading Time: 2 minutes

    Experience the world like a cat with this whisker-style sensory extension

    Arduino TeamJuly 2nd, 2019

    Imagine if you had whiskers. Obviously, this would make you something of an oddity in today’s society. On the other hand, you’d be able to sense nearby objects via the transmission of force through these hair structures.

    In order to explore this concept, Chris Hill has created a whisker assembly for sensory augmentation, substituting flex sensors for the stiff hairs that we as humans don’t possess. The sensors—four are used here—vary resistance when bent, furnishing information about their status to the Arduino Uno that controls the wearable device. Forehead-mounted vibratory motors are pulsed via PWM outputs in response, allowing the user to feel what’s going on in the surrounding environment.

    If this looks familiar, Hill is quick to credit Nicholas Gonyea’s Whisker Sensory Extension Wearable as the basis for this project. He hopes his take on things improves the original, making it lighter, more cost-effective, and easier to construct. 

    The purpose of this project was to focus on the creation of novel, computationally-enriched “sensory extensions” that allow for augmented-sensing of the natural world. My major effort with this project was devoted to the fabrication and implementation of sensory augmentations that will extend a sense through sensors and respond with a tactile output for the user. The intent is to enable anyone to fabricate their own sensory extensions, and thusly map intrinsically human/animal senses onto hardware. Effectively extending our senses in new and exciting ways that will lead to a better understanding of how our brain is able to adapt to new external senses.

    Website: LINK