scholarly journals Adaptive Real Time Data Mining Methodology for Wireless Body Area Network Based Healthcare Applications

2012 ◽  
Vol 3 (4) ◽  
pp. 59-70 ◽  
Author(s):  
Dipti Durgesh Patil
IEEE Access ◽  
2017 ◽  
Vol 5 ◽  
pp. 11413-11422 ◽  
Author(s):  
Taiyang Wu ◽  
Fan Wu ◽  
Jean-Michel Redoute ◽  
Mehmet Rasit Yuce

2021 ◽  
Author(s):  
N Arun Vignesh ◽  
Kanithan S ◽  
Jana S ◽  
Gokul Prasad C ◽  
Konguvel E ◽  
...  

Abstract We propose in this paper a reduction in the size of wearable antennas on silicon (Si) for medicinal frameworks and Internet of things (IoT). This research also introduces one more type of dynamic patch antenna designed in favor of speech-enhanced healthcare applications. The most significant impediment to the adoption of smart correspondence and medical services frameworks is voice-enabled IoT. The primary objective of a body area network (BAN) is to give ceaselessly clinical information to the doctors. Actually wireless body area network is flexible, dense, trivial and less expensive. On the other hand the main disadvantage is low efficiency for small printed antenna. Microstrip silicon antenna recurrence is changed because of ecological conditions, distinctive reception apparatus areas and diverse framework activity modes. By using tunable antenna the efficiency of bandwidth usage can be increased. Amplifiers are associated with the feed line of antenna in order to build its dynamic range. In this study, a dynamic polarized antenna is constructed, analysed and attempted for fabrication. The gain of the antenna is 13 ± 2dB for the frequency range of 390 to 610MHz. The output of the polarized antenna is roughly 19 dBm. At different environmental conditions the performance and ability to control the antenna could vary. To achieve stable performance, we have used varactor diode and voltage controlled diode. This silicon wearable antenna can be fabricated and tested for many medical applications like health monitoring system, pacemakers etc. Furthermore, Micromachining techniques can be used to lower the practical dielectric constant of Silicon and hence improve radiation efficiency.


Wireless body area network (WBAN) being a sub-domain of wireless sensor network (WSN) is a new emerging technology for healthcare applications. A WBAN consists of low-power tiny wireless nodes placed on or around the human body that continuously observe vital health signs of a patient. These sensors are capable of sending information of physiological parameters taken from human body to other devices for diagnosis procedures and prescription. WBAN provides ubiquitous healthcare services and enables greater mobility without restricting human normal activities, as the medical personnel can observe the patient health conditions based on the data received through the wireless network. This research work provides a WBAN based healthcare monitoring system that can provide the electrocardiogram (ECG), heartbeat, and human body temperature information. The wireless transmission of the received data from human body is performed by using Zigbee IEEE802.15.4 communication standard. The physiological data will be communicated to remote medical server where data is stored and analyzed. In case any disease is diagnosed, medical personnel can provide immediate assistance to the patients.


2020 ◽  
pp. 2002-2017
Author(s):  
Danda B. Rawat ◽  
Sylvia Bhattacharya

Wireless Body Area Network (WBAN) is an emerging field of research which has been progressing rapidly in recent years. WBAN is a network utilized for continuous monitoring of physiological state of the subject, where the patient can perform his regular activities while his body parameters get measured continuously and are accessed by the physician remotely. This chapter provides a thorough survey of current WBAN technologies in the healthcare sector. Besides the recording of physiological parameters, discussions have been provided on remote data transmission to a server called Virtual Doctor Server (VDS). During this transmission, WBAN network uses various technologies namely Ultra Wide Band WBAN, Technology Enabled Medical Precision Observation 3.1 (TEMPO 3.1), J2ME and Bluetooth. Details of several existing WBAN related projects have been discussed along with their applications. The next section of the chapter deals with the use and design of medical sensors in WBAN. Performance comparison between WBAN and WSN (Wireless Sensor Network) has also been provided.


2020 ◽  
Vol 10 (1) ◽  
pp. 26
Author(s):  
Fahad Khan ◽  
Ateeq Ur Rehman ◽  
Jawad Khan ◽  
Muhammad Tariq Sadiq ◽  
Rao Muhammad Asif ◽  
...  

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