Title :
Medical reliable network using concatenated channel codes through GSM network
Author :
Ahmed, Erfan ; Kohno, Ryuji
Author_Institution :
Div. of Phys., Yokohama Nat. Univ., Yokohama, Japan
Abstract :
Although the 4th generation (4G) of global mobile communication network, i.e. Long Term Evolution (LTE) coexisting with the 3rd generation (3G) has successfully started; the 2nd generation (2G), i.e. Global System for Mobile communication (GSM) still playing an important role in many developing countries. Without any other reliable network infrastructure, GSM can be applied for tele-monitoring applications, where high mobility and low cost are necessary. A core objective of this paper is to introduce the design of a more reliable and dependable Medical Network Channel Code system (MNCC) through GSM Network. MNCC design based on simple concatenated channel code, which is cascade of an inner code (GSM) and an extra outer code (Convolution Code) in order to protect medical data more robust against channel errors than other data using the existing GSM network. In this paper, the MNCC system will provide Bit Error Rate (BER) equivalent to the BER for medical tele monitoring of physiological signals, which is 10-5 or less [1]. The performance of the MNCC has been proven and investigated using computer simulations under different channels condition such as, Additive White Gaussian Noise (AWGN), Rayleigh noise and burst noise. Generally the MNCC system has been providing better performance as compared to GSM.
Keywords :
AWGN; bioelectric potentials; biomedical electrodes; biomedical electronics; burst noise; channel coding; convolutional codes; digital simulation; error statistics; medical computing; telemedicine; GSM network; MNCC system; Rayleigh noise; additive white Gaussian noise; bit error rate; burst noise; computer simulation; concatenated channel code; convolution code; global mobile communication network; long term evolution; medical data protection; medical network channel code system; medical reliable network; medical telemonitoring application; physiological signal; Bit error rate; Convolution; Decoding; GSM; Mobile communication; Noise; Reliability;
Conference_Titel :
Engineering in Medicine and Biology Society (EMBC), 2013 35th Annual International Conference of the IEEE
Conference_Location :
Osaka
DOI :
10.1109/EMBC.2013.6610610