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  Reconfigurable FPGA Chip Design For Wearable Healthcare System  
  Authors : Chandrakant Ragit; Sameer Subhash Shirgaonkar; Dr. Sanjay Badjate
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Smart sensors, which are created by combining sensing materials with integrated circuitry are being considered for several biomedical application such as a Glucoselevel, Temperature, ECG etc. Practical usability of the majority of current wearable body sensor systems for multiple parameter physiological signal acquisition is limited by the multiple physical connections between sensors and the data-acquisition modules. In order to improve the user comfort and enable the use of these types of systems on active mobile subjects, a wireless body sensor system that incorporates multiple sensors on a single node is proposed. The system must be suitable for longer-term monitoring of the subjects, such as continuous wear and autonomous operation up to several days without replacement of the power source. Thus power consumption is a major challenge in these applications.

 

Published In : IJCSN Journal Volume 4, Issue 2

Date of Publication : April 2015

Pages : 208 - 212

Figures : 06

Tables : --

Publication Link : Reconfigurable FPGA Chip Design For Wearable Healthcare System

 

 

 

Chandrakant Ragit : Assistant Professor Eletronics & Telecom. Dept. Cummins College of Engg. for Women, Nagpur

Sameer Subhash Shirgaonkar : R & D Engineer IC Design 4 Staff, LSI Research & Development Pvt Ltd (An Avago Technologies Company)

Dr. Sanjay Badjate : Professor & Vice-Principal of S B Jain Institute of Technology, Management & Research, Katol Road, Nagpur

 

 

 

 

 

 

 

Sensors

WBSN

Health Care

FPGA Wireless Networking

A prototype WBSN system was built to verify the design. The measurement results show that prototype WBSN with the designed ASIC can operate efficiently as expected. In addition to the work-on-demand capability, the special passive standby mode offered by this design shows great advantage in terms of the standby power for the sensor nodes in the WBSN for medical applications. key issues in WSBN / WSN, and the application specific requirements have been discussed. And then sensor node architecture with a hybrid of active / passive RF transceivers is proposed. Adopting the passive RF, the “real-time” demand in the medical care purpose can be satisfied with no extra energy induced in the sensor nodes, solving the problems that trade off occurs between low-power and “real-time” wakeup in WBSN. It is especially suitable for long-term standby stimulus (or drug delivery) sensor node in the medical application. In this paper, we provided a implementation of an Integrated healthcare network that combined the advantages of 802.15.4, 802.11 and mobile technologies for efficient remote health monitoring and alarming.

 

 

 

 

 

 

 

 

 

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