#wheelchairuser

✨ What AI is already doing

📱 Seeing, describing, navigating

Microsoft Seeing AI: Scan a page or a scene, and it will read text aloud, identify people and objects, recognize currency, etc. Opera Medium

Be My Eyes + “Be My AI”: Traditionally, Be My Eyes connected blind/low-vision users with volunteer helpers via live video. More recently, it added an AI mode (powered by GPT-4) so users can get instant image descriptions and follow-up questions without needing a human volunteer. Wikipedia

AI smart goggles: In India, innovators have created “smart goggles” with computer vision, face/object recognition, and audio feedback to help visually impaired users navigate real environments. The Times of India

🦾 Prosthetics, exoskeletons & motion support

AI in prosthetics: Modern prostheses use machine learning to interpret nerve signals (EMG) and adapt movement more fluidly, giving users more natural control. PMC ResearchGate IJISAE

Real-time adaptation & simulation models: AI simulation models are being employed within prosthetic systems to refine predictions about movement and adapt in real time. Nature

Hand exoskeletons / vision + sensors: Researchers built prototypes that use cameras + AI to assist with grasping or moving fingers for people with weak hand control. arXiv

Hybrid Assistive Limb (HAL): A powered exoskeleton suit that reads biosignals (nerve/muscle signals) and helps amplify or support motion in paralyzed or low-mobility users. Wikipedia

🎤 Communication, control & inclusion

Eye tracking / gaze control & voice recognition: For people who can’t use traditional input devices, AI enables interfaces controlled via eye gaze or voice. UN Regional Information Centre AT&T Newsroom

Avatar robots / telepresence work: Some people unable to leave home can operate robots remotely (e.g. “avatar work”) to attend jobs, move physically in places, etc. arXiv arXiv

Music with eyes: The EyeHarp lets people with severe motor impairment produce music using eye or head movements as input. Wikipedia

Preserved voice via AI voice cloning: For people with conditions like ALS (who gradually lose speech capability), AI voice cloning can preserve a person’s natural voice so they can still “speak” with something close to their original voice. (E.g. collaborations by speech-synthesis firms and disability groups) The Times

⚠️ What we must also watch out for

AI isn’t perfect, and it has risks and blind spots (literally and figuratively). Here are a few concerns:

Bias & exclusion: Algorithms trained on “average” inputs often mess up when encountering non-standard features (e.g. facial differences, movement disabilities). UN Regional Information Centre UNDP

Voice recognition limitations: Many voice systems struggle with non-standard accents, speech impairments, or nonverbal communication styles. UNDP UN Regional Information Centre

Privacy & autonomy: Using AI to monitor movement, health signals, or behavior is powerful — but it risks surveillance or dependency if not designed with agency in mind.

Overreliance on tech: Not all environments (physical spaces, institutions) are built for AI solutions; plus, tech fails sometimes. We still need universal design and backup supports.

Access inequality: Not everyone has access to these tools (cost, connectivity, device support), so there’s a danger of widening the gap between who “benefits” and who doesn’t.

📝 Why this matters

Because for many disabled people, AI is more than convenience — it’s access. It’s the difference between being able to read a menu, walk independently, speak with loved ones, or do a job. AI can shift the balance of autonomy.