🚀Spica lets researchers capture Parkinson’s task performance and wearable data at the same time. From finger tapping & tremor to balance and reaction time—plus #HR, #HRV, #activity, #sleep & more—Spica enables continuous, real-world PD monitoring and personalized rehab. #Parkinsons #Wearables

🚀 Pilot study validates a #wearable for #ParkinsonsDisease at the movement level. Tremor & akinesia reach 100% sensitivity (≥93% specificity), sensors track Levodopa response, and rule-based algorithms ensure traceability. Dyskinesia detection is limited during gait. Measurement > classification.

🚀A new study unveils a wearable bioelectronic system that objectively tracks stress. It combines #ECG, #GSR, #pulse, #temp & #sweat cortisol, runs battery-free, and uses AI to distinguish stress states—enabling continuous, multimodal, biologically grounded stress monitoring.

How can we objectively record #Parkinsonian symptoms outside the clinic? 🧠📱 We added a comprehensive task library for Parkinsonian patients, enabling objective assessment of motor control, dexterity, balance, tremor, and fine motor function using smartphones to generate digital biomarkers. #Virgobit

Self‑recoverable porous #sensors that you can write into shape: new work in Advanced Science shows thermo‑responsive, shape‑editable porous electrodes enabling multimodal motion sensing in smart insoles, joint bands, and gloves. 🧠🦵 #WearableSensors #SmartMaterials

🧬 #Wearable platforms are enabling time-resolved cortisol monitoring from #sweat. A new Nature Sensors study reports a skin-interfaced, paper-based microfluidic system capturing circadian rhythms, acute stress responses, and jet-lag effects—without invasive sampling or continuous electronics.

🧠🔬 From signals to sentences: a soft #wearable reads subtle throat & heart activity, using AI to turn intent into fluent speech for stroke survivors with dysarthria. Continuous, natural communication that amplifies intent—designed for real life, not just metrics. #StrokeRehabilitation #Dysarthria

🤖🧬 Micro-robots + AI + IVF may be the next frontier of reproductive medicine. A new @natureportfolio.nature.com article shows how micro-robotics, nanobiosensors, wearables & AI could enable more objective, less invasive and more automated ART — while raising key ethical & regulatory questions.

One study. Five wearable sensors. Hundreds of participants — how do you keep it all in sync? ⏱️📡 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

🔬 #Wearable EMG is redefining silent speech. 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

🚀 #2026 is here! At Virgobit, we’re thrilled to: ✅ 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

🌍🚀 2025 was a landmark year for Virgobit! From innovative digital health solutions and Spica’s evolution to high-impact research projects and scientific collaborations worldwide — together with our tech & academic partners, we advanced health innovation. Onward to 2026! 🧠📄🧪 #DigitalHealth #Virgobit

🧠📱 Ecological Momentary Assessment (#EMA) by Spica captures patient-reported symptoms, behaviors, and context in real time. Fully customizable questionnaires with flexible scheduling (specific times or number of prompts) help track daily fluctuations and improve data quality for any clinical study.

💡🚨 High-fidelity touch, now finger-scale. 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

🚀 Gel-free, skin-conformal #wearable ultrasound powered by tunable acoustic materials! 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

#Wearables are transforming assisted mobility! 🦾 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

🏃‍➡️🚀 Next-gen #wearable tech for endurance sports! A @natureportfolio.nature.com study presents a MXene hydrogel sensor for real-time cardiorespiratory monitoring—stretchable, antibacterial, and reliable in heat, humidity, sweat, and motion. 🔗 Full article in comments! #WearableTechnology

🚀 #AI + #Wearables are transforming cardiovascular care! Continuous, AI-powered monitoring via ECG, PPG, HRV & more enables early detection of heart disease, arrhythmias & LV dysfunction. Real-world trials show promise in therapy monitoring & risk prediction. #DigitalHealth #Cardiology #MedTech

🚀 #AI + #wearable biosensors can predict inpatient deterioration up to 24 hours earlier than standard monitoring, per a new Nature Communications study across 888 patients—marking real progress toward continuous, physiology-driven precision care in hospitals. #DigitalHealth #ClinicalAI

🚀A major breakthrough in noise-tolerant #wearables: 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

🚀Spica goes beyond wearables — delivering lab-grade cognitive, affective, and motor tasks remotely while syncing high-resolution physiological data. Used in @trr393.bsky.social & Charité’s RETUNE project for affective and Parkinson’s research. We’re adding more tasks! get in touch! [email protected]

🚀A major breakthrough in wearable #EMG: 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

🚀 Tiny neck sensor + interpretable AI = next-gen sleep monitoring! 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 major @natureportfolio.nature.com breakthrough: a multimodal wristband combining microneedle chemistry with ultrasound vitals to track glucose, lactate, BP, stiffness & HR in real time. A powerful step toward integrated cardiometabolic monitoring and the future of intelligent digital health.

🚀 A new ECG+PCG #wearable is pushing cardiac monitoring into a new era. With high SNR, dual-signal detection, and extraction of EMD, LVET, and PEP, this innovation brings earlier and smarter cardiovascular insights—advancing the future of digital cardiology. #WearableTech #Cardiology

🚀 MIT researchers introduce Circulatronics: subcellular electronics carried by immune cells that self-implant in inflamed brain regions. No surgery, deep targets, high precision. A new era of minimally invasive neuromodulation is here! 🧠🔬 #Neurotech #Neuromodulation #Bioelectronics

Insights from WT | Wearable Technologies Show 2025 at MEDICA: Exciting progress in advanced sensors, flexible electronics, connectivity modules, and new materials. These innovations are enabling AI-powered diagnostics, continuous monitoring, and the next generation of digital health. #WearableTech

A new @natureportfolio.nature.com study introduces a mm-thin, electronics-free electrotherapy patch used like a band-aid. Apply it to the skin and a full stimulation dose activates automatically—no charging or controls. Validated for tDCS, iontophoresis, and wound healing. #BioelectronicMedicine

🚀A mask that hears without listening? 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

🦿Breaking the limits of human movement with soft #wearable robotics! 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.

From sweat to science — #wearables are evolving to decode our body fluids in real time. Sweat, tears, breath & interstitial fluid reveal molecular health data for proactive, AI-driven care. A new era of connected, personalized medicine is here. #WearableTech #DigitalHealth #Bioengineering

🚀 Breakthrough in 3D #WearableBioelectronics! 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

🔬 Skin-like, wireless sensors are here! Battery-free & ultra-sensitive, they track glucose, electrolytes, pH & more — all in real-time. 10× more sensitive, 50% smaller, antimicrobial, and biocompatible. A true leap in #WearableTech & #SmartHealth! 👏 #BiomedicalEngineering #Virgobit

Discover the latest innovations in #neuroscience with Virgobit’s digital booth: Spica for multimodal health data, BrainGoMo, #wearable partners, and real-world research case studies. Explore interactive demos, ask questions, and see how these tools advance research and clinical practice. #Virgobit

🚀 Breakthrough in non-contact bio-monitoring! A @natureportfolio.nature.com e study unveils a non-contact #wearable that reads skin’s molecular flux — water vapor, CO₂ & VOCs — without touch. A leap forward for wound care, diagnostics & environmental health. #WearableTech #Bioengineering

🧠 Rethinking #Wearables: A diffusion-based wearable analyzes skin-emitted gases (sweat, CO₂, VOCs) continuously, noninvasively, in real time. Moves beyond biofluids, opening new frontiers in #DigitalPhysiology and #SensorInnovation for metabolic, stress, and chronic health monitoring.

🔬 Sound meets skin! #Wearable ultrasound is here: soft, AI-guided devices enable deep-tissue therapy, precise drug delivery, & nerve stimulation — anytime, anywhere. Bridging clinic & home, this tech redefines chronic care, neurorehab & regenerative medicine. #WearableUltrasound #AIinMedicine

🧠@natureportfolio.nature.com presents a deep learning framework achieving 99.26% accuracy in motion classification for ankle exoskeletons using #EMG + #IMU data. Textile-based electrodes, transfer learning, and sensor fusion advance safe, adaptive rehabilitation. Link in comments. #AI #Neuroscience

🩺 The wearable that lets your skin speak. A new @natureportfolio.nature.com study unveils a breathable skin analyzer that continuously tracks skin hydration and barrier function — revealing how pollution and circadian rhythms shape skin health. #WearableTech #Science #DigitalHealth

🎥 At the @trr393.bsky.social Meeting in Dresden, Virgobit presented Spica for continuous remote monitoring in affective disorder research. Our CEO showcased our methodology, multimodal data visualization, and patient engagement interface — linking real-world behavior with clinical insight. #Virgobit

🚀 Nanofibers are transforming wearable heart health! A new @researcheracad.bsky.social study shows flexible, biocompatible sensors can track BP, ECG & cardiac biomarkers. Key breakthroughs: advanced electrospinning, polymer–nanocomposites, bridging wearables & regenerative medicine. #WearableTech

🚀 Wearable nanotech is transforming chronic disease care! Next-gen sensors track molecular markers (heart, neuro, autoimmune, mental health) in real time. From episodic tests to continuous, personalized monitoring—bringing precision, proactive healthcare closer than ever. #Nanotechnology

🧠 When brain implants start to understand — not just record. A landmark study in Nature Biomedical Engineering combines invasive neurophysiology, connectomics & AI to decode brain states across Parkinson’s, depression & epilepsy — paving the way for adaptive, closed-loop neurotherapies.

🧠 @natureportfolio.nature.com uncovers the neuronal circuitry behind autonomic dysreflexia. The study shows how epidural electrical stimulation (EES) counteracts maladaptive networks post-SCI, restoring cardiovascular control and opening doors to precision neurorehabilitation. #Neuroscience

🧠 Imagine a bionic hand that feels. New research in @natureportfolio.nature.com shows how cortical microstimulation can restore touch directly in the brain — merging robotics, AI, and neuroscience to bring sensory feedback to prosthetics. Full article in comments. #Neuroengineering #BCI

🧠 Micropatterned Biphasic Printed Electrodes for High-Fidelity On-Skin Bioelectronics — a new Advanced Functional Materials (2025) study achieves 14× lower skin impedance (4.7 kΩ) with 3D-printed, liquid-metal electrodes, enabling gel-free, high-fidelity EEG, EMG & ECG. #WearableTechnology

🎗 October is Breast Cancer Awareness Month. Global cases are projected to rise 40% by 2050 (@WHO). The role of wearable technology and remote monitoring can transform care, enabling earlier detection, continuous tracking, and improved support for women during treatment. #BreastCancerAwarenessMonth

🧠Where Biology Meets Technology! New research in @natureportfolio.nature.com explores how wearable molecular sensors could transform endocrine and metabolic care — capturing hormones and metabolites from sweat, breath, and tears for real-time, personalized health insights. #WearableTech

🧬 KAIST’s battery-free, skin-conformal sensor visualizes pressure, shear, & temperature via AR in real time. AI-calibrated & wearable, it enables posture monitoring, pressure injury prevention, & surgical insight — turning hidden biomechanical signals into intuitive, visual healthcare data.

👚🧠 Smart Textiles Meet Generative AI. A new @science.org study introduces a deep learning–empowered acoustic fabric that can perceive voice, recognize speech with 97.5% accuracy, and even talk to ChatGPT — paving the way for hands-free AI interaction in healthcare and research. #WearableAI