ABSTRACT Biomedical application has been an important component in the use of contemporary data and communication methods for health care. Over time, wireless networking technology has increasingly penetrated and made its way into all components of our everyday life. An area for encouraging the future of wireless networking is medical implementation. Through transmitting their status to nurses in real time, a patient who is remotely placed may be remotely handled. Physiological parameters such as body temperature, degree of oxygen saturation, heart rate, amount of blood sugar, blood pressure, etc. were primarily generated to observe e-healthcare devices. However with the advancement of wireless technology, there have been a range of variations in e-healthcare systems and improvements. Tele-biomedical wireless network apps such as telemedicine for mobile communications are a distant medical activity that allows different individuals to collaborate and facilitate their collective activities through IT and telecommunications to diagnose or treat disease. Remote computers are medication servers and databases that help interpret and handle critical evidence and provide patients with adequate service in real-time. Medicinal goods are a general idea to inform and link customers to preventive medical care using and linking to mobile telephones and other networks. The framework incorporates applications for the transmission of patient data from an Android application, based on market sensitivity for social media schemes such as a child vaccine tracking software app which could be adaptable with biometric instruments such as thermometers, glucometers, and densitoms to other diseases, such as higher BP, diabetes, and fever. REFERENCES [1] David L. King, William E. Boyson, and Jay A. Kratochvil. Analysis of factors influencing the annual energy production of photovoltaic systems. In Conference Record of the IEEE Photovoltaic Specialists Conference, pages 1356–1361, 2002. [2] C.W.J. Van Koppen. New renewable energy resources: A guide to the future. Solar Energy, 55(1):73–74, 1995. [3] Haidar Samet, Dariush Keihan Asl, Teymoor Ghanbari, and Alaa Hamza Omran. Optimal Number and Location of the Required Measurment Units for Fault Detection of PV Arrays. In Proceedings - 2018 IEEE International Conference on Environment and Electrical Engineering and 2018 IEEE Industrial and Commercial Power Systems Europe, EEEIC/I and CPS Europe 2018, 2018. [4] Alaa Hamza Omran, Yaser M. Abid, Ahmed Sabah Ahmed, Huda Kadhim, and Ruqaia Jwad. Maximizing the power of solar cells by using intelligent solar tracking system based on FPGA. In 2018 Advances in Science and Engineering Technology International Conferences, ASET 2018, pages 1–5, 2018. [5] Phanishwar Nath Shukla and Anula Khare. Solar Photovoltaic Energy: The State-of-Art. Technical Report 2, 2014. [6] E. Despotou, A. E. Gammal, and B. Fontaine. Global market outlook for photovoltaics until 2014. Brussels, Belgium: European Photovoltaic Industrial Association, 2010. [7] Alaa Hamza Omran. Minimizing the loses of solar power generation by designing an intelligent tracking system implemented on FPGA. International Journal of Reconfigurable and Embedded Systems (IJRES), 6(3):169, 2018. [8] Pathomthat Chiradeja and R. Ramakumar. An approach to quantify the technical benefits of distributed generation. IEEE Transactions on Energy Conversion, 19(4):764–773, 2004. [9] Milind E. Rane and Umesh S Bhadade. Comparative Study of ROI Extraction of Palmprint. IJCSN International Journal of Computer Science and Network, 5(2), 2016
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