More than 15 percent of the world’s population—greater than 1 billion people—live with disabilities including hearing loss, vision problems, mental health challenges, and lack of mobility. EPICS in IEEE has engaged students’ ingenuity worldwide to address accessibility issues through adaptive services, redesigned technology, and new assistive technologies during its 2023 Access and Abilities Competition.

The competition challenged university students around the world to use their engineering skills to help with accessibility issues. The EPICS in IEEE Committee received 58 proposals and selected 23 projects, which were funded in early 2023.

EPICS is a grant-based program for IEEE Educational Activities that funds service learning projects for university and high school students.

The teams, which include faculty members and IEEE members, create and execute engineering projects in partnership with organizations to improve their communities.

“Some gamers with arm or hand deficiencies play with their feet, nose, mouth, or elbows, or they use devices not intended for that purpose and are forced to adapt. I realized that if there was a dedicated device designed for such individuals, they’d be able to play and experience the joy of gaming.” —John McCauley.

The four EPICS in IEEE pillars are access and abilities; environment; education and outreach; and human services. In the Access and Abilities Competition, student teams received between US $1,000 and $10,000. Each team had 12 months to build a prototype or solution in collaboration with its community partners. The projects, which involved more than 350 students and 149 IEEE volunteers, aimed to help an estimated 8,000 people in the first year of deployment.

The teams included participants from IEEE student branches, IEEE Women in Engineering groups, IEEE–Eta Kappa Nu honor society chapters, and IEEE sections.

Projects included a sound-detection device and a self-navigating robotic walking aid.

The competition was funded by the Taenzer Memorial Fund in 2019, with $90,000 allocated by the IEEE Foundation. The fund was established with a bequest from the estate of Jon C. Taenzer, an IEEE life senior member.

The student teams submitted their final reports this year.

Here are highlights from four of the projects:

Adaptive mouse for gaming

Members of the adaptive mouse EPICS in IEEE team at the University of Florida in Gainesville designed a device that contains keyboard functions and can be used with just one hand.EPICS in IEEE

A team of 10 biomedical engineering students at the University of Florida in Gainesville designed their project to help people whose hands or arms have an abnormality, so they could more easily play games.

The team built five adaptive mouse devices and plans to deliver them this year to five recipients involved with Hands to Love, a Florida-based organization that supports children with upper limb abnormalities.

The team incorporated the keyboard elements of gaming into a mouse, allowing gaming gestures and movements with just one hand. The 3D-printed mouse combines existing gaming technology, including the internal mechanisms of keyboards, a Logitech mouse, and Microsoft Xbox controller emulations. It allows the player to move and aim while gaming with just a mouse.

Gaming enthusiast John McCauley, a junior in the university’s biomedical engineering program, was behind the project’s conception.

“Some gamers with arm or hand deficiencies play with their feet, nose, mouth, or elbows, or they use devices not intended for that purpose and are forced to adapt,” McCauley says. “I realized that if there was a dedicated device designed for such individuals, they’d be able to play and experience the joy of gaming.”

The team used its $1,000 EPICS in IEEE grant to purchase the prototype’s components.

Making campus more accessible

Universidad Tecnólogica de Panamá students test their microcontroller-based prototype, designed to help make their school more accessible.EPICS in IEEE

A team of 15 undergraduate students from the Universidad Tecnológica de Panamá in Panama City and 24 students from four high schools in Chiriquí, Panama, created several projects focused on people with visual or physical disabilities. The team’s goal was to make their campus and community more accessible to those with different abilities. The projects enhanced their classmates’ autonomy and improved their quality of life.

The team made braille signs using a 3D printer, and they designed and built a personalized wheelchair. The students also automated the doors within the engineering department to provide better access to classrooms and corridors for those with disabilities.

“This project will be very useful, especially [in Panama], where buildings have not been adapted for people with disabilities,” said team member Gael Villarreal, a high school junior.

While working together on the project, team members honed their technical and interpersonal skills. They came to appreciate the importance of collaboration and communication.

“I learned that you need to have new experiences, be sociable, meet and get along with new people, and work as a team to be successful,” high school junior Gianny Rodriguez said.

The team used its $8,100 EPICS grant to purchase materials and train the community on using the new tools.

Helping children with hearing impairments

A team of students from the SRM Institute of Science and Technology student branch, in Chennai, India, worked with the Dr. MGR Home and Higher Secondary School for the Speech and Hearing Impaired, also in Chennai, to build a device to help children with hearing aids and cochlear implants learn Tamil, the local language. In rural areas, young children often do not have access to specialized speech and hearing health care providers to learn critical language skills. The team’s assistive device supports native language skill development, helping parents and trainers support the children in language and sound acquisition.

The project is designed to provide access to aural rehabilitation, including identifying hearing loss and therapies for children far from hospitals and rehabilitation centers.

The kiosklike device resembles an ATM and includes surround-sound speakers and touchscreens. It uses a touch monitor and microphones to access tasks and tests that help young children learn Tamil.

The team worked with 150 pupils at the school between the ages of 5 and 8 to develop the prototype. The built-in app includes tasks that focus on improving auditory awareness, auditory discrimination (the ability to recognize, compare, and distinguish between distinct sounds), and language acquisition (how people perceive and comprehend language).

The device tests the pupil’s hearing range based on sounds with visual cues, sounds at low intensity, sounds in the presence of noise, and sound direction.

The speakers emulate real-life situations and are used to relay the teacher’s instructions.

The team received a $1,605 grant to execute the project.

This video spotlights the challenges youngsters with hearing disabilities in Chenni, India, face and how the assistive technology will help them.

Self-navigating robotic walking aid

Students from the IEEE Swinburne Sarawak student branch in Malaysia brought a prototype of their walking aid to Trinity Eldercare, their community partner.EPICS in IEEE

To help senior citizens with mobility issues, a team of students from the IEEE Swinburne Sarawak student branch at the Swinburne University of Technology, in Malaysia, created a self-navigating walking aid.

The team wanted to improve existing walkers on the market, so they surveyed residents at Trinity Eldercare to find out what features would be useful to them.

The students’ prototype, based on a commercial walker, includes a wearable haptic belt that detects obstacles and alerts the user. Pressure sensors in the hand grips sense which direction the user wants to go. One of the senior citizens’ most requested features was the ability to locate a misplaced walker. The team was able to address the issue using sensors.

“I gained substantial knowledge in robotics programming and artificial intelligence and deep learning integration for person tracking and autonomous navigation,” one of the team members said. “Additionally, presenting our smart walker prototype at the International Invention, Innovation, Technolgy Competition and Exhibition in Malaysia enhanced my presentation skills, as I successfully articulated its viability and usefulness to the judges.”

The project received a $1,900 grant.

Join the EPICS in IEEE mailing list to learn more about all the Access and Abilities Competition projects and other impactful efforts made possible by donations to the IEEE Foundation. To learn more, check out the video of the competition:

The EPICS in IEEE program is celebrating its 15th year of supporting and facilitating service-learning projects and impacting students and communities worldwide

Here’s a great communication tool for learners with autism. Pyramid Educational Consultants, the pioneers behind the Picture Exchange Communication System® (PECS®), recently launched PECSTalk™, an innovative communication app designed for learners with autism and other complex communication needs. Available now for Android tablet users, PECSTalk™ merges decades of proven strategies with modern technology, offering an intuitive, user-friendly experience; redefining how non-speaking individuals communicate.

The cool factor of this tool lies in its simplicity and versatility. With fewer steps required to build and speak a message, users experience less frustration and more successful communication. The app’s streamlined interface mirrors a traditional PECS Communication Book, yet it supports a much broader vocabulary, thanks to its Speech-Generating Device (SGD) capabilities.

Customization is at the core of the tool. Users can access the extensive Pics for PECS® image library, choose from 14 languages, and tailor voice outputs, creating a truly personalized communication experience. The app also allows caregivers and educators to back up data, transfer information, and share books across devices, making it easier to support learners in various environments.

Whether making requests, asking questions, or expressing feelings, PECSTalk™ empowers non-speaking individuals to fully participate in their world. A free version with limited functionality is available, making this essential tool accessible to more learners. Learn more. 

The post PECSTalk  appeared first on EdTech Digest.

As a lifelong disabled person who constantly copes with multiple conditions, I have a natural tendency to view emerging technologies with skepticism. Most new things are built for the majority of people—in this case, people without disabilities—and the truth of the matter is there’s no guarantee I’ll have access to them.

There are certainly exceptions to the rule. A prime example is the iPhone. Although discrete accessibility software did not appear until the device’s third-generation model, in 2009, earlier generations were still revolutionary for me. After I’d spent years using flip phones with postage-stamp-size screens and hard-to-press buttons, the fact that the original iPhone had a relatively large screen and a touch-based UI was accessibility unto itself. 

AI could make these kinds of jumps in accessibility more common across a wide range of technologies. But you probably haven’t heard much about that possibility. While the New York Times sues OpenAI over ChatGPT’s scraping of its content and everyone ruminates over the ethics of AI tools, there seems to be less consideration of the good ChatGPT can do for people of various abilities. For someone with visual and motor delays, using ChatGPT to do research can be a lifesaver. Instead of trying to manage a dozen browser tabs with Google searches and other pertinent information, you can have ChatGPT collate everything into one space. Likewise, it’s highly plausible that artists who can’t draw in the conventional manner could use voice prompts to have Midjourney or Adobe Firefly create what they’re thinking of. That might be the only way for such a person to indulge an artistic passion. 

For those who, like me, are blind or have low vision, the ability to summon a ride on demand and go anywhere without imposing on anyone else for help is a huge deal.

Of course, data needs to be vetted for accuracy and gathered with permission—there are ample reasons to be wary of AI’s potential to serve up wrong or potentially harmful, ableist information about the disabled community. Still, it feels unappreciated (and underreported) that AI-based software can truly be an assistive technology, enabling people to do things they otherwise would be excluded from. AI could give a disabled person agency and autonomy. That’s the whole point of accessibility—freeing people in a society not designed for their needs.

The ability to automatically generate video captions and image descriptions provides additional examples of how automation can make computers and productivity technology more accessible. And more broadly, it’s hard not to be enthused about ever-burgeoning technologies like autonomous vehicles. Most tech journalists and other industry watchers are interested in self-driving cars for the sheer novelty, but the reality is the AI software behind vehicles like Waymo’s fleet of Jaguar SUVs is quite literally enabling many in the disability community to exert more agency over their transport. For those who, like me, are blind or have low vision, the ability to summon a ride on demand and go anywhere without imposing on anyone else for help is a huge deal. It’s not hard to envision a future in which, as the technology matures, autonomous vehicles are normalized to the point where blind people could buy their own cars. 

At the same time, AI is enabling serious advances in technology for people with limb differences. How exciting will it be, decades from now, to have synthetic arms and legs, hands or feet, that more or less function like the real things? Similarly, the team at Boston-based Tatum Robotics is combining hardware with AI to make communication more accessible for deaf-blind people: A robotic hand forms hand signs, or words in American Sign Language that can be read tactilely against the palm. Like autonomous vehicles, these applications have enormous potential to positively influence the everyday lives of countless people. All this goes far beyond mere chatbots.

It should be noted that disabled people historically have been among the earliest adopters of new technologies. AI is no different, yet public discourse routinely fails to meaningfully account for this. After all, AI plays to a computer’s greatest strength: automation. As time marches on, the way AI grows and evolves will be unmistakably and indelibly shaped by disabled people and our myriad needs and tolerances. It will offer us more access to information, to productivity, and most important, to society writ large.

Steven Aquino is a freelance tech journalist covering accessibility and assistive technologies. He is based in San Francisco.