Wearable Sensor Research Topics
Wearable sensor is nothing but an electronic device which is small in size and adaptable to more environments for collecting data by being more close to the body. Continue reading this paper to gain more knowledge about this technology.
- Define Wearable sensor
A sensor system which is designed in order to wear or stay close to body to gather information from body either physiological or behavioral or any environmental parameters is the wearable sensor. This is a non-invasive technique used for collection of real time data by attaching the sensor to accessories, clothes or directly on the body.
- What is Wearable sensor?
This wireless sensor is now more popular because of its capability to provide personalized data for fitness and health which will be useful for an individual to make appropriate adjustments in lifestyle for their well-being. Usually those sensors require any display unit like mobile apps to analyze the data collected by them and to display it. This makes the users to know about their progress and to make required changes in their daily routine.
- Where Wearable sensor is used?
These wearable sensors have applications in different areas. The main advantage of this technology is that, it can collect data from real time by simply wearing them. It is applicable in monitoring fitness and health, management of stress and emotion, athletics and sports, monitoring environment also used in industries.
- Why Wearable sensor technology is proposed? Previous Technology Issues
This technology was proposed to overcome the challenges and issues faced by different industries. The wearable sensors mainly focus to bring solution for the problem caused in the modern world which is more data-driven and connected. This technology is more adapted in many industries and bringing more new innovations because of its potential to provide improved safety, life quality, productivity and health.
Now this wearable sensor has many advantages with it, but earlier it faced many challenges. The issues faced by previous technologies are:
Battery Life: Long lasting battery life for wearable sensors is very important for monitoring, but earlier one had only limited battery life. Some changes have made in it to make it more energy efficient and manage power.
Comfort and Wearability: It is very challenging to design the sensor wearable because it has to be very comfortable to wear them for long hours. A design for sensor which is more uncomfortable to wear won’t be encouraging.
Data Privacy and Security: These wearable sensors collect data which is more sensitive and personal. So they need to be secure and private.
Standardization: When there is no standard format and protocols then there may problem arise in data integration and data sharing.
- Algorithms / Protocols
The algorithms provided for Wearable sensor to overcome the previous issues faced by it are: “K-nearest-neighbor” (KNN), “Support Vector Machine” (SVM), “Decision Tree” (DT), Adaboost, “Linear Discriminant Analysis” (LDA) and “Random Forest” (RF).
- Comparative study / Analysis
Some other algorithms are used in this paper at various sections which is different from the algorithms in earlier papers to overcome the issues faced by them in detecting stress. For processing data “Filtering and artifact removal techniques” are used. By using “Hybrid Wavelet Short-Time Fourier Transform” (HW-STFT), feature extraction is done. “Recursive Least Absolute Shrinkage and Selection Operator” (RLASSO) helps in selecting feature. For detecting stress “Adam optimized sequential Generative Adversarial Network” (AOS-GAN) algorithm is used.
- Simulation results / Parameters
The approaches which were proposed to overcome the issues faced by Wearable sensor are tested using different methodologies to analyze its performance. The comparison is done by using metrics like Accuracy, Sensitivity, Precision, Recall, Negative predictive value, AUROC (“Area under the Receiver Operating Characteristic Curve”), AUC (“Area under Curve”), Execution time (sec) and Weighted F1 score.
- Dataset LINKS / Important URL
Here are some of the links provided for you below to gain more knowledge about Wearable sensor which can be useful for you:
- https://www.sciencedirect.com/science/article/abs/pii/S0933365719311777
- https://ieeexplore.ieee.org/abstract/document/9838970
- https://www.tandfonline.com/doi/abs/10.1080/03091902.2020.1759707
- https://dl.acm.org/doi/abs/10.1145/3397482.3450732
- https://ieeexplore.ieee.org/abstract/document/8857130
- Wearable sensor Applications
This technology of wearable sensor has many applications in various fields and areas, from which some of them are listed here: Medical healthcare Assisted living and Elderly care, Fitness and Health monitoring, Data collection and Research, Environmental monitoring, Well-being and Mental health.
- Topology
Generally topology defines the architecture of a network in which the sensors are connected to each other. The topology adapted for a network has link with the reliability, scalability and performance of the system. The commonly used topologies are mentioned here: Star topology, Mesh topology, Hybrid topology, Tree topology and Ring topology.
- Environment
The environment of this wearable sensor network will be decided based on the requirements of a specific application. This technology is more adaptable, so it is suitable for many environments to collect data related to the problem.
- Simulation Tools
Here we provide some simulation software for Wearable sensor technology, which is established with the usage of NS tool with version 3.36 or above.
- Results
When you complete reading this paper, now at this stage you can get a clear idea of this technology like what actually it is, where it is implemented, the algorithms used in it, topologies followed by it and also the significance of it over earlier technologies.
Wearable sensor Research Ideas
- On-Demand Provisioning of Wearable Sensors Data Processing Services in Edge Computing
- Design and Development of a Flexible Wearable Sensor Based On a Conductive Textile for Breathing Monitoring
- A Wearable Strain Sensor Based on Mechanoluminescent Polydimethylsiloxane Fiber
- Analytical and computational analysis of a wearable impedance sensor for wireless measurements of analytes in bodily fluids
- Detection of Different Stages of Anxiety from Single-Channel Wearable ECG Sensor Signal Using Fourier–Bessel Domain Adaptive Wavelet Transform
- Efficient Online Compression for MEMS based BCG Wearable Sensors on ULP FPGA
- Nanowires-Based Stretchable Strain Sensor for Wearable Applications
- Recognizing and Understanding Sport Activities Based on Wearable Sensor Signals Using Deep Residual Network
- Sports Applications of Biomechanics Wearable Sensors using IoT
- A Novel Heuristic Fall-Detection Algorithm Based on Double Thresholding, Fuzzy Logic, and Wearable Motion Sensor Data
- Recent Developments in Plastic Optical Fiber based Wearable Sensors
- Carbon Nano tube based thermoelectric generator and Graphite Nanoparticle based super capacitor for smart wearable sensors
- Fully Inkjet-Printed Soft Wearable Strain Sensors Based on Metal/Polymer Composite Sensing Films
- A Low-Cost Flexible Wrist ECG Sensor for Wearable Devices Application
- Activity-Based Person Identification Using Multimodal Wearable Sensor Data
- Wearable Sensors to Monitor Psychophysiological Response Induced by Musical Consonance and Dissonance
- A Wearable Flower-Shaped Sensor Based on Fiber Bragg Grating Technology for In-Vivo Plant Growth Monitoring
- Data Augmentation to Address Various Rotation Errors of Wearable Sensors for Robust Pre-impact Fall Detection
- Assessing Novel Orthostatic Vital Signs with a Wearable Sensor
- Wearable Motion Capture: Reconstructing and Predicting 3D Human Poses from Wearable Sensors
- IoMT-Enabled Wearable Sensors for Continuous Glucose Monitoring in Diabetes Management
- Light Residual Network for Human Activity Recognition using Wearable Sensor Data
- Flexible and Wearable Capacitive Pressure Sensor for Monitoring Heart Parameters
- Understanding Privacy Risks versus Predictive Benefits in Wearable Sensor-Based Digital Phenotyping: A Quantitative Cost-Benefit Analysis
- A Portable Electrochemical Measurement Platform for Wearable-Flexible Sweat Sensors
- A Decoupling Method Based on Equivalent Mechanism Analysis for Motion Measurements of Human Multi-DOF Joints by Using Wearable Strain Sensors
- Evaluating Multimodal Wearable Sensors for Quantifying Affective States and Depression with Neural Networks
- Estimation of Plate and Bowl Dimensions for Food Portion Size Assessment in a Wearable Sensor System
- towards a real-world application of wearable sensors for musculoskeletal disorders prevention: the iFeel Wired Suit
- Development of an FBG-Based Wearable Sensor for Simultaneous Respiration and Heartbeat Measurement
- A Stretchable Argentum/Polyurethane Fiber Strain Sensor for Wearable Sensing Devices
- SALIENCE: An Unsupervised User Adaptation Model for Multiple Wearable Sensors Based Human Activity Recognition
- A Flexible Capacitive Electromyography Biomedical Sensor for Wearable Healthcare Applications
- Wearable Sensors Based Human Core Body Temperature Computing Method
- Wearable Strain Sensor with a Graphene Localized Warping Structure for Ultra-Wide Range Strain Detection and Bending Direction Recognition
- A Wearable Pressure Sensor Based on Ultrathin Ionic Nano paper for Wide-Range Human Signal Detection
- Cord Woven Fabric as Dielectric of a Low-Cost Wearable Capacitive Pressure Sensor for Record of Pressing Behavior at Emergency Rescue
- Human posture recognition based on wearable sensor
- Attention Based Hybrid Deep Learning Network for Locomotive Mode Recognition in Natural Environments Using Wearable Sensors
- Wearable Sensors for Non-Invasive Sport Monitoring: An Overview of the STEX Project
- Paper-Based Wearable Strain Sensor for Body Joint’s Movement Detection
- Wearable Sensors in Daily Life: A Review
- Wearable Sensor for Boxer Performance Improvement
- A Robust Approach for Real Time Activity Classification Using Wearable Sensors and Ensemble Learning
- Adaptive Maximization of Harvested Kinetic Energy for Small Wearable Medical Sensors
- MhaGNN: A Novel Framework for Wearable Sensor-Based Human Activity Recognition Combining Multi-Head Attention and Graph Neural Networks
- Wearable Electrochemical Sensors for Healthcare Monitoring: A Review of Current Developments and Future Prospects
- Wearable UHF-RFID Sensor for Wetness Detection
- Patient Monitoring Using Wearable Motion Sensor System
- SensePred: Guiding Video Prediction by Wearable Sensors