[1] Quang D. H., Tweed D., & Le-Ngoc T. (2017). Long Term Evolution in Unlicensed Bands. In Springer International Publishing. 1 – 77.
[2] Shayea Ibraheem, Hadri Azmi Marwan, Tharek A.R., Ergen M., Han C.T., & Arsad A. (2019), Spectrum Gap Analysis With Practical Solutions For Future Mobile Data Traffic Growth In Malaysia. IEEE Access, 7, 24910–24933.
[3] N. Milosevic, B. Dimitrijevic, D. Drajic, Z. Nikolic & M. Tosic (2017). LTE and Wi-Fi Co-Existence in 5 GHz Unlicensed Band. Facta Universitatis – Series: Electronics and Energetics, 30(3), 363 – 373.
[4] International Telecommunication Union (2019). Measuring Digital Development Facts and Figures 2019. Geneva: ITU. Retrieved January 17, 2020 from https://www.itu.int/en/ITU-D/Statistics/Documents/facts/FactsFigures2019.pdf
[5] P. Boyland. (2019). The State of Mobile Network: Benchmarking Mobile On The Eve of The 5G Evolution. Opensignal, 1 – 19.
[6] Paschal A.O. & Philip J. I. (2016). Evolutionary Analysis of GSM , UMTS and LTE Mobile Network Architectures. World Scientific News, 54, 27–39.
[7] Zhang, J., Wang, M., Hua, M., Xia, T., Yang, W., & You, X. (2018). LTE on License-Exempt Spectrum. IEEE Communications Surveys & Tutorials, 20(1), 647-673.
[8] Paolini M. & Fili S. (2015). LTE unlicensed and Wi-Fi : Moving beyond coexistance. In LTE unlicensed and Wi-Fi : Moving beyond coexistance. 1 – 85.
[9] Chakkor Saad, Baghouri Mostafa, El Ahmadi Cheikh, & Hajraoui Abderrahmane. (2014). Comparative Performance Analysis of Wireless Communication Protocols for Intelligent Sensors and Their Applications. International Journal of Advanced Computer Science and Applications (IJACSA), 5(4), 76 – 85.
[10] A. B. Ibrahim, & A. Z. M. Ali. (2016). Simulation of Single Stage LNA Based on Ladder Matching Networks for WiMAX Application. International Journal of Information and Electronics Engineering, 6(3), 161–165.
[11] M. Arsalan & Falin Wu. (2019). LNA design for future S band satellite navigation and 4G LTE applications. Computer Modeling in Engineering and Sciences (CMES), 119(2), 249–261.
[12] F. Meng, H. Liu, M, Wang, X. Zhang & T. Tian. (2016). RF Low Power Subsampling Architecture For Wireless Communication Applications. EURASIP Journal Wireless Communication and Network, 121 (2016), 1 – 15.
[13] Anishaziela Azizan, S.A.Z. Murad, R.C. Ismail & M.N.M. Yasin. (2014). A Review on the Low Noise Amplifier for Wireless Application. 2014 2nd International Conference on Electronic Design, 375 – 379.
[14] Ram Kumar, Anandini Devi, Abahan Sarkar & F. A. Talukdar (2016). Design of 5.5 GHz Linear Low Noise Amplifier Using Post Distortion Technique with Body Biasing. Microsystem Technologies (2016), Vol 22, 2681 – 2690.
[15] W. Lee, J. Lee & J. Jeong. (2011). Design of Variable Gain Low Noise Amplifier Using Feedback Circuit with Memory Circuits For 5.2 GHz Band. Analog Integrated Circuits and Signal Processing, Vol 68, 43 – 50.
[16] S. Udaya Shankar, M. Davidson K. D. (2015). Design and Performance Measure of 5.4 GHz CMOS Low Noise Amplifier using Current Reuse Technique in 0.18μm Technology. Procedia Computer Science, 47(2015), 135 – 143.
[17] H. Khosravi, S. Zandian, A. Bijari & N. Kandalaft. (2019). A Low Power, High Gain 2.4/5.2 GHz Concurrent Dual-Band Low Noise Amplifier. 2019 IEEE 9th Annual Computing and Communication Workshop and Conference (CCWC), 788 – 792.
[18] Anuj Madan, Michael J. M., Christophe M., William V. & John D. C. (2012). A 5 GHz 0.95 dB NF Highly Linear Cascode Floating-Body LNA in 180 nm SOI CMOS Technology. IEEE Microwave and Wireless Components Letters, 22(4), 200 – 202.
[19] A. B. Ibrahim, H. F. Hanafi, F. H. Yahya & N. H. A. Kahar. (2019). Low Noise Amplifier for LTE Application Using High-Performance Low Noise Pseudomorphic High Electron Mobility Transistor (PHEMT). International Journal of Advanced Science and Technology, 28(8), 806 – 811.
[20] Abu Bakar Ibrahim & Ashardi Abas. (2017). A Microwave Low Noise Amplifier for Long Term Evolution (LTE) Application. Journal of Engineering and Science Research, 1(2), 203–208.