2. • Smart wearable devices refer to
• portable
• intelligent technologies
• that can be worn on the body,
• providing real-time monitoring and feedback.
• innovative ways to monitor, diagnose, and treat various neurological
conditions.
• Today, we will explore the potential applications and benefits of smart
wearable devices in neurology.
INTRODUCTION
2
3. BENEFITS OF SMART WEARABLES
• Continuous Monitoring
• Remote Patient Monitoring
• Activity Tracking
• Sleep Monitoring
• Biofeedback and Rehabilitation
• Medication Adherence
• Research and Data Collection
3
4. 1. Continuous Monitoring:
• enable continuous non invasive monitoring
• real-time data can be gathered over extended period
• Adds a value to our traditional in-clinic assessments.
• , provide valuable insights
• and help in early detection,
• diagnosis, and
• management of neurological disorders.
4
5. 2. Remote Patient Monitoring:
• track patients' neurological health without the need for frequent
hospital visits.
• beneficial for patients living in remote areas.
• improves accessibility to specialized care
• reduces healthcare costs.
5
6. 3.Activity Tracking:
• equipped with accelerometers and gyroscopes
• track the patient's movements and physical activity.
• assist in monitoring gait abnormalities, tremors or motor impairments asso
with PD or MS
• in movement disorders like Parkinson's disease, wearable sensors track –
-motor symptoms,
-medication response,
-fluctuations in motor function.
6
7. • This information aids in
• disease progression
• evaluate the effectiveness of treatment
• medication titration
• therapy adjustments
• and the development of personalized treatment plans.
7
8. 4. Sleep Monitoring:
• monitor sleep duration, quality, and disturbances,
• providing valuable information for diagnosing and managing
conditions like sleep disorders, epilepsy, or neurodegenerative
diseases , Osas
8
9. 5. Biofeedback and Rehabilitation:
• Smart wearables can provide biofeedback in real-time, helping patients to
improve their rehabilitation outcomes.
• For example, wearable devices can track muscle activity and provide
visual or haptic cues to-
- aid in retraining movements,
- improving motor skills,
- or facilitating recovery after strokes or traumatic brain injuries.
• This real-time feedback enhances the effectiveness of therapy and
promotes patient engagement.
9
11. 6. Medication Adherence
• Improved medication adherence is crucial where timely and
consistent medication intake is vital,
• can serve as reminders for taking medication at the prescribed
times.
• can send alerts or notifications to the wearer, ensuring that they
adhere to their medication schedule.
11
12. 7. Research and Data Collection
• offer an opportunity to collect large-scale, real-world data on
neurological conditions.
With patient consent, researchers can leverage this data
- to gain insights into disease progression,-
- treatment effectiveness
and the impact of lifestyle factors on neurological health.
- the development of new therapies,
- personalized medicine approaches,
12
14. EEG HEADSETS
• EEG headsets are wearable devices that detect and record
electrical activity in the brain.
• consist of a headband or cap with multiple electrodes that
capture brainwave patterns.
• used in diagnosing and monitoring conditions such as epilepsy,
sleep disorders, and brain injuries.
• They also enable brain-computer interfaces (BCIs) for
controlling external devices using brain signals.
14
16. Actigraphy Devices
• Actigraphy devices are worn on the wrist and measure
movement and activity levels.
• They use accelerometers to track sleep patterns, circadian
rhythms, and physical activity.
• used to monitor sleep disorders like insomnia and circadian
rhythm disorders.
• It provides valuable data for assessing sleep quality and
patterns over time.
16
17. Smart Clothing
• Innovative smart clothing incorporates embedded sensors that
can monitor and record various physiological parameters.
• wearable devices embedded in shirts can track heart rate,
respiration rate, and body temperature.
• This data can be used to monitor autonomic dysfunctions or
neurodegenerative diseases.
17
18. Smart Glasses
• Smart glasses equipped with sensors and display capabilities
can provide real-time feedback and assistance
• displays visual cues and reminders to aid individuals with
memory impairments.
• assist in the rehabilitation of stroke patients by displaying
interactive exercises and tracking progress.
18
19. Wearable TENS Devices
• Transcutaneous Electrical Nerve Stimulation (TENS) devices
deliver low-voltage electrical currents through electrodes
attached to the skin.
• provide non-invasive pain relief for individuals with chronic pain
conditions, including neuropathic pain
19
20. Wearable Assistive Devices
• Wearable devices, such as exoskeletons or robotic limbs, can
help individuals to regain mobility and improve motor functions.
• uses advanced sensors and actuators to detect movements and
provide support or assistance when needed.
• They are particularly beneficial for patients with conditions like
spinal cord injuries or stroke.
20
22. Embrace2
Embrace2 is a wrist-worn wearable device specifically designed
for individuals with epilepsy.
• It utilizes multiple sensors, including electrodermal activity
(EDA) and accelerometer,
• detect seizures and send alerts to caregivers.
• It also tracks sleep patterns and physical activity.
22
23. • Limitation- may mistake some normal daily activities (e.g., hand
clapping or teeth brushing) for generalized tonic-clonic seizures,
creating the challenge of false alarms
• Price and availability – 250 US$ withdrawn from market
23
26. 2. Zio Patch
• Zio is a prescription-only,
• single patient use,
• continuously recording ECG monitoring system
• can be worn for up to 14 days.
• Monitoring using mobile app
26
27. • used in neurology to detect and diagnose conditions such as
atrial fibrillation, which contribute to stroke risk.
• Price- 350-400 US$
• ? Availablity in india
27
29. • Actigraphy watches, such as the Actiwatch, wrist-worn device
• uses accelerometers to measure and analyze movement
patterns.
• used in sleep medicine and neurology to assess sleep-wake
cycles and circadian rhythm disturbances.
29
30. • useful to help determine whether disruptions in the
sleep-wake cycle exist,
• as may occur in many different sleep disorders.
• They are generally not accurate enough to detect
specific sleep stages
30
32. • Various wearable devices have been developed to suppress
tremors
• in conditions like Parkinson's disease or essential tremor.
• These devices often take the form of gloves, wristbands, or
sleeves.
• equipped with sensors and actuators which counteracts tremor
movements.
32
33. • The tremor suppression glove has elements which span across
the Proximal Interphalangeal joint (PIP) and
Metacarpophalangeal joint (MCP) as shown in Fig.
• works by damper countering the action of the tremor in the
fingers by applying a resistant force against the motion.
33
36. 5.Muse
• Muse is a headband-style EEG device used for neurofeedback
and meditation.
• It measures brainwave activity and provides real-time feedback
through an accompanying app,
• helps individuals learn to calm their minds and improve focus
and relaxation.
• The device measures brain activity via
4 electroencephalography (EEG) sensors.
36
37. • relaxed state through the sound of tweeting birds, and higher
amounts of brain activity is represented by storm sounds
Price 30,000 rs
Available in india
37
39. 7. BioStamp Research Connect
• used in research studies.
• BioStamp Research Connect is a flexible,
• adhesive wearable device ,
• Can be placed on different parts of body
• monitor various physiological signals.
• captures data related to movement, muscle activity, heart rate,
and skin temperature.
39
41. 8. FreeStyle Libre
• is a continuous glucose monitoring system
• utilizes a wearable sensor to measure glucose levels.
• Uses a sensor and a reader
• Price 25,000 for 4 sensors and a reader.
• It is relevant in neurology as some neurological conditions, such
as epilepsy, may be affected by fluctuations in blood glucose
levels.
41
44. MOBILES APPS FOR MONITORING
• Epilepsy Foundation My Seizure Diary: track their seizures,
medication usage, side effects, and other relevant information
• Parkinson's Toolkit: medication reminders, exercise videos, a
symptom tracker, and educational materials.
• Migraine Buddy: record migraine triggers, symptoms, duration,
and intensity. helps identify patterns and triggers.
• BrainHQ & CogniFit Brain Fitness : scientifically designed
exercises to improve cognitive abilities.
44
46. • Parkinson mPower is being used in a 2-year research study of
Parkinson disease progression.
• In this study, an app monitors key indicators of disease
progression, including dexterity, tremors, mobility, balance, gait,
and memory.
46
47. LIMITATIONS
• Limited Efficacy Data
• no widely accepted standard for evaluating wearables.
• Regulatory enforcement guidelines.
• Privacy Implications
• Adherence - 1) diseased vs healthy users, (2) ease of use/physical discomfort, (3)
self-consciousness, and (4) concern about damaging the equipment.
• Price , availability
47
48. CONCLUSION
• Awareness should be used raised about wearable technologies.
• implications of these applications for our patients.
• Should be safe to use.
• Adherence
• research for studying their efficacy, effectiveness, and
implementation in health care systems.
48
49. References
• Minen MT, Stieglitz EJ. Wearables for Neurologic Conditions: Considerations for Our Patients and
Research Limitations. Neurol Clin Pract. 2021 Aug;
• A Systemic Review of Available Low-Cost EEG Headsets Used for Drowsiness
Detection Front. Neuroinform., 15 October 2020
Volume 14 - 2020 | https://doi.org/10.3389/fninf.2020.553352
• https://www.researchgate.net/publication/275580004_WEARABLE_TECHNOLOGIES
_AND_ITS_FUTURE_APPLICATIONS
• R, Bärnighausen T, Barteit S The Impact of Wearable Technologies in Health Research: Scoping
Review JMIR Mhealth Uhealth 2022;10(1):e34384
• Literature on Wearable Technology for Connected Health: Scoping Review of Research Trends,
Advances, and Barriers
49