www.virgobit.com
Fragmented apps, formats & timestamps break data and reduce compliance. #Spica unifies streams in one app, syncs data in real time & boosts engagement via EMA + feedback. 📊
#DigitalHealth #Wearables
Fragmented apps, formats & timestamps break data and reduce compliance. #Spica unifies streams in one app, syncs data in real time & boosts engagement via EMA + feedback. 📊
#DigitalHealth #Wearables
ETH Zurich shows a dry, textile neckband decoding vocalized (87%) & silent speech (68%) — no gels, no face electrodes, ultra-low power (22 mW), robust to repositioning.
Big step for assistive, private & daily-use HMI.
#Wearables #EMG #SilentSpeech
ETH Zurich shows a dry, textile neckband decoding vocalized (87%) & silent speech (68%) — no gels, no face electrodes, ultra-low power (22 mW), robust to repositioning.
Big step for assistive, private & daily-use HMI.
#Wearables #EMG #SilentSpeech
✅ Build smarter tools for clinicians 🩺
✅ Empower researchers with multimodal data 📊
✅ Transform insights into healthcare breakthroughs 🔬💻
💫 Here’s to a year of health, bold ideas & limitless possibilities! 🌟
#HappyNewYear #DigitalHealth #Virgobit
✅ Build smarter tools for clinicians 🩺
✅ Empower researchers with multimodal data 📊
✅ Transform insights into healthcare breakthroughs 🔬💻
💫 Here’s to a year of health, bold ideas & limitless possibilities! 🌟
#HappyNewYear #DigitalHealth #Virgobit
#DigitalHealth #Virgobit
#DigitalHealth #Virgobit
An 18-g haptic ring delivers three-axis force sensing + kinaesthetic feedback using origami-inspired design and soft robotics. A major step for XR, HCI, and rehabilitation research.
#WearableTechnology
An 18-g haptic ring delivers three-axis force sensing + kinaesthetic feedback using origami-inspired design and soft robotics. A major step for XR, HCI, and rehabilitation research.
#WearableTechnology
54% bandwidth,
+9 dB SNR,
flexible design, and in vivo tracking of carotid dynamics.
Unlocks continuous cardiovascular monitoring & next-gen on-skin diagnostics.
#WearableUltrasound #MedTech
54% bandwidth,
+9 dB SNR,
flexible design, and in vivo tracking of carotid dynamics.
Unlocks continuous cardiovascular monitoring & next-gen on-skin diagnostics.
#WearableUltrasound #MedTech
From exoskeletons to smart wheelchairs, AI + multimodal sensors + human-in-the-loop design are moving devices from lab to daily life.
Cognitive load, fatigue, adaptability, and long-term usability now define real-world success.
#WearableTechnology
From exoskeletons to smart wheelchairs, AI + multimodal sensors + human-in-the-loop design are moving devices from lab to daily life.
Cognitive load, fatigue, adaptability, and long-term usability now define real-world success.
#WearableTechnology
🔗 Full article in comments!
#WearableTechnology
🔗 Full article in comments!
#WearableTechnology
#DigitalHealth #ClinicalAI
#DigitalHealth #ClinicalAI
deep-learning sensors that decode gestures even during running, vibration, and ocean-wave motion. A powerful step toward reliable, real-world human–machine interfaces across clinical, robotics, and aquatic environments.
#WearableTechnology
deep-learning sensors that decode gestures even during running, vibration, and ocean-wave motion. A powerful step toward reliable, real-world human–machine interfaces across clinical, robotics, and aquatic environments.
#WearableTechnology
Used in @trr393.bsky.social & Charité’s RETUNE project for affective and Parkinson’s research.
We’re adding more tasks!
get in touch! info@virgobit.com
Used in @trr393.bsky.social & Charité’s RETUNE project for affective and Parkinson’s research.
We’re adding more tasks!
get in touch! info@virgobit.com
Stanford researchers show that a compact 6-channel device can achieve 32-channel-level performance using a generative EMG model. A significant step forward for gait analysis, gesture decoding, and real-world neuromuscular monitoring. #WearableTechnology
Stanford researchers show that a compact 6-channel device can achieve 32-channel-level performance using a generative EMG model. A significant step forward for gait analysis, gesture decoding, and real-world neuromuscular monitoring. #WearableTechnology
LMA captures cardio + respiratory signals, outperforming HRV for sleep-stage detection, matching human REM scoring, detecting OSA/snoring, & enabling personalized, at-home sleep phenotyping.
#SleepScience #WearableTech
LMA captures cardio + respiratory signals, outperforming HRV for sleep-stage detection, matching human REM scoring, detecting OSA/snoring, & enabling personalized, at-home sleep phenotyping.
#SleepScience #WearableTech
A powerful step toward integrated cardiometabolic monitoring and the future of intelligent digital health.
A powerful step toward integrated cardiometabolic monitoring and the future of intelligent digital health.
#WearableTech #Cardiology
#WearableTech #Cardiology
#Neurotech #Neuromodulation #Bioelectronics
#Neurotech #Neuromodulation #Bioelectronics
#WearableTech
#WearableTech
#BioelectronicMedicine
#BioelectronicMedicine
Researchers at Wuhan University built a thermoelectric wearable that reads breath, heartbeat, coughs—even the airflow pattern of “help”—with 98% accuracy. No mic. No electrodes. Just physics, textiles, and smart algorithms.
#WearableTech #DigitalHealth
Researchers at Wuhan University built a thermoelectric wearable that reads breath, heartbeat, coughs—even the airflow pattern of “help”—with 98% accuracy. No mic. No electrodes. Just physics, textiles, and smart algorithms.
#WearableTech #DigitalHealth
A new study shows a textile-based soft robot boosting vertical jump by up to 9.04 cm using tendon-inspired pneumatic actuation and a triarticular kinetic chain. Soft robotics is moving from support to true performance augmentation.
A new study shows a textile-based soft robot boosting vertical jump by up to 9.04 cm using tendon-inspired pneumatic actuation and a triarticular kinetic chain. Soft robotics is moving from support to true performance augmentation.
#WearableTech #DigitalHealth #Bioengineering
#WearableTech #DigitalHealth #Bioengineering
Oxford & Cambridge researchers unveil d-3DPLM, a laser tech that sculpts flexible devices — from electro-haptic patches to wireless contact lenses — directly onto 3D surfaces.
A new era of seamless human-tech integration begins.
#Bioelectronics
Oxford & Cambridge researchers unveil d-3DPLM, a laser tech that sculpts flexible devices — from electro-haptic patches to wireless contact lenses — directly onto 3D surfaces.
A new era of seamless human-tech integration begins.
#Bioelectronics