Performance Analysis of Cascaded H- Bridge Multilevel Inverter

References

[1] Abo Akademi (2014). "Refrigeration/Kylteknik". Lecture Note on Refrigeration Course #424503.0, Thermal and Flow Engineering Lab., Abo Akademi University. Turku.

[2] Adegoke, C. O. (1987). “Evaluation of a Refrigerant / Absorbent Combination for Vapour Absorption Refrigeration Systems Utilizing Solar Heat”. Ph.D. Thesis in Mechanical Engineering, University of London.

[3] ASHRAE 2005: ASHRAE Handbook: Fundamentals ASHRAE, Atlanta, Georgia.

[4] Bajpai, V.K. (2012). Design of Solar Powered Vapour Absorption System. Proceedings of the World Congress on Engineering, Vol. III, London, U.K.

[5] Collier, R.K. (1979). “The Analysis and Simulation of an Open Cycle Absorption Refrigeration System”. Solar Energy, Vol.23, Pp 357-366.

[6] Farber, E. A. (1965). “The Direct use of Solar Energy Operate Refrigeration and Air Conditioning Systems”. Technical Progress Report No. 15, Engineering Progress of the University of Florida, Gainsville.

[7] Fathi, R. and Quaskit, S. (2001). “Performance of a Solar LiBr-Water Absorption Refrigerating System Review Energy Renewable, Pp73-78.

[8] Florides, G.A., Kalogirou, S.A., Tassou, S.A., and Wrobel, L.C. (2003). “Design and Construction of a LiBr-water Absorption Machine”. Energy Conversion Management, Vol. 44, Pp2483 – 2508.

[9] Gommed, K. and Grossman, G. (1990). “Performance Analysis of Staged Absorption Heat Pumps: Water – Lithium Bromide System”. ASHARE Transactions, Vol. 96, No. 1 Pp1590-1598.

[10] Gunther, R.C. (1957). “Refrigeration, Air Conditioning and Cold Storage”, (2nd edition). Chilton Company, Philadel phia, Pp1232.

[11] Herold, K.E., Radermacher, R., and Klein, S.A. (1996) “Absorption Chillers and Heat Pumps”. CRC Press Inc., Boca Raton, Pp329.

[12] Herold, R. & Klein, A. (1996). Absorption Chillers and Heat Pumps. New York: CRC. Http://www.Chuden.Co.Jp/English/Corporate/Press2006/1107_1.H IIT (2014). Lesson 14: Vapour Absorption Refrigeration Systems, Mechanical Engineering Department, Indian Institute of Technology (IIT), Kharagpur, India.

[13] Iloeje, O.C. (1977). “Parametric Effects on the Performance of a Solar Powered Solid Absorption Refrigerator”. Solar Energy, Vol. 40, Issue 3, Pp 191-195.

[14] Kouremenos, D.A., Antonopallos, K.A., and Rogdakis, E. (1990). “Hour Simulation of Solar H2O-LiBr Absorption Heat Transformers in Athens”. Solar and Wind Technology, Vol. 7, No. 3, Pp111-119.

[15] Madu K. E., 2015. Design and Analysis of Vapour Absorption Refrigeration System (VARS) for Nigerian Geo-Climatic Conditions. A M.Eng.Thesis in Mechanical Engineering, ESUT, Enugu

[16] Madu, K. E. (2018). Performance Analysis of a Hot Water Driven 5 Tons Capacity Absorption Refrigeration System for Nigerian Application. Journal of Industrial Technology, 3 (1): 33-40

[17] Mohanty, D. K., and Padhiary, A. (2015). Thermodynamic Performance Analysis of a Solar Vapour Absorption Refrigeration System. International Journal of Enhanced Research in Science Technology and Engineering, Vol. 4, Issue 4, Pp45-54.

[18] Staicovici, M.D. (2000). “A Non-Equilibrium Phenomenological Theory of the Mass and Heat Transfer in Physical and Chemical Interactions. Part II – Modeling of the NH3:H2O Bubble Absorption, Analytical Study of Absorption and Experiment”. International Journal of Heat and Mass Transfer, Vol. 43, Pp.4175–4188.

[19] Swartman, R.K and Ha, V. and Newton, A.J. (1974). “Survey of Solar Powered Refrigeration” . Paper No. 73-WA-SOL-6, ASME.

[20] Swartman, R.K. and Swaminathan, C. (1971). “Solar Powered Refrigeration”. Mechanical Energy (ASME), Pp 22-24.

[21] Tesha, P. (2009). “Absorption Refrigeration System as an Integrated Condenser Cooling Unit in a Geothermal Power Plant”. A Masters Degree Thesis, United Nation University, Iceland.

[22] Vamvakidis, S. I. (1978). “Solubility of Absorbents in Refrigerants”. M.Sc Thesis, Department of Mechanical Engineering, Kings College, London University.

[23] Worsoe-Schmidt, P. (1983). “Solar Refrigeration for Developing Countries Using Absorption Cycle”. International Journal of Ambient Energy, Vol. 4, Pp 115-123.

@article{1702245,
      author = {N. Gomathi, Dr. N. Mohanapriyaa, S. Shobana},
      title = {Performance Analysis of Cascaded H- Bridge Multilevel Inverter},
      journal = {Iconic Research And Engineering Journals},
      year = {2020},
      volume = {3},
      number = {10},
      pages = {268-276},
      issn = {2456-8880},
      url = {https://www.irejournals.com/formatedpaper/1702245.pdf},
      abstract = {Multilevel inverter is considered as one of the most recent and popular type of advances in power electronics. It synthesizes desired output voltage waveform from several dc sources used as input for the multilevel inverter. As the number of level is increased, the output voltage waveforms obtained is closer to the sinusoidal voltage waveform. Multilevel inverter (MLI) is a new breed of power converter that is suited for medium and high power applications. For a seven level output, the proposed inverter topology comprises of one H-bridge with three power switches and three DC sources which is of equal in nature is simulated using MATLAB. The traditional two or three levels inverter does not completely eliminate the harmonics in the output waveform. Therefore, using the multilevel inverter as an alternative to traditional PWM inverters is used. Therefore, using the multilevel inverter as an alternative to traditional PWM inverters is used. The fundamental frequency switching scheme is used to control the power electronics switches.},
      keywords = {Total harmonic distortion, multilevel inverter, Induction motor, Newton Raphson method},
      month = {April},
  }