Arumozhiyal S.Saravanakumar 2021a - Revision history

Arulmozhiyal at 04:15, 13 July 2023

2023-07-13T04:15:44Z

Rimni at 09:37, 5 October 2022

2022-10-05T09:37:09Z

Rimni at 08:59, 5 October 2022

2022-10-05T08:59:34Z

Rimni at 12:31, 28 September 2022

2022-09-28T12:31:03Z

Rimni at 12:30, 28 September 2022

2022-09-28T12:30:37Z

Rimni at 11:51, 22 September 2022

2022-09-22T11:51:02Z

Rimni at 11:50, 22 September 2022

2022-09-22T11:50:18Z

Rimni at 14:26, 21 September 2022

2022-09-21T14:26:43Z

Rimni at 14:26, 21 September 2022

2022-09-21T14:26:09Z

Rimni at 14:25, 21 September 2022

2022-09-21T14:25:41Z

@@ Line 6: / Line 6: @@
 <div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
-Dr. R. Arumozhiyal & S.Saravanakumar,</div>
+Arumozhiyal R, S.Saravanakumar & Murali M</div>
 <div class="center" style="width: auto; margin-left: auto; margin-right: auto;">

@@ Line 274: / Line 274: @@
 <div class="auto" style="text-align: left;width: auto; margin-left: auto; margin-right: auto;font-size: 85%;">
-[1] MediPallavi, S.L.V Sravan Kumar, N.Ravishankar Reddy.An Integrated Boost Parallel Flyback Converter for Multi Load Applications. International Journal of Innovative Technology and Exploring Engineering.8:42-48, 2019.
+[1] Pallavi M.,  Sravan Kumar S.L.V,  Reddy N.R.. An integrated boost parallel flyback converter for multi load applications. International Journal of Innovative Technology and Exploring Engineering, 8(4S2):42-48, 2019.
-[2] SandhyaSeelam, Ravi Kumar G , SambasivaRao N, H6 Transformer less Topology and Its Modulation Strategy for Mitigating Cm Currents in Pv Grid Connected Inverters. Journal of Engineering Research and Applications,8:46-51,2015.
+[2] Seelam S., Kumar G.R., Rao N.S., H6 Transformer less topology and its modulation strategy for mitigating Cm currents in Pv grid connected inverters. Journal of Engineering Research and Applications, 5(8):46-51,2015.
-[3] Aparna Das, Sheeja G, Single-Phase H6 Transformerless Inverter With a Simple Boost Converter for PV-Grid Tied Power Systems. International Journal of Research in Engineering and Technology.04: 06-14:2015.
+[3] Das A., Sheeja G. Single-phase H6 transformerless inverter with a simple boost converter for PV-grid tied power systems. International Journal of Research in Engineering and Technology, 04(6):318-323, 2015.
-[4] Mohammadi, M.; Adib, E., Lossless passive snubber for half bridge interleaved flyback converter,” Power Electronics, IET,23:25-32.2014.
+[4] Mohammadi M., Adib E. Lossless passive snubber for half bridge interleaved flyback converter. IET Power Electronics,  7(6):1475–1481, 2014.
-[5] Young-Ho Kim, Young-Hyok. A new control strategy for improving weightedefficiency in photovoltaic AC module-type interleaved flyback inverters, Power Electronics, IEEE Transactions: 2286-2300, 2013.
+[5] Kim Y.H.,  Ji Y.-H.,  Kim J.-G.,  Jung Y.-C.,   Won C.-Y. A new control strategy for improving weightedefficiency in photovoltaic AC module-type interleaved flyback inverters. In IEEE Transactions on Power Electronics, 28(6):2688-2699, 2013.
-[6] D.K. Ryu, Y.-H.Kim, J.-G.Kim, C.-Y.Won and Y.-C. Jung, Interleaved active clamp flyback inverter using a synchronous rectifier for a photovoltaic ac module system, Proc. 8th Int. Conf. IEEE Power Electron, May 2011.
+[6]  Ryu D.K., Kim Y.-H., Kim J.-G., Won C.-Y.,   Jung Y.-C. Interleaved active clamp flyback inverter using a synchronous rectifier for a photovoltaic ac module system. 8th International Conference on Power Electronics - ECCE Asia, pp. 2631-2636, May 2011.
-[7] Junming Zhang, Xiucheng Huang, Xinke Wu ZhaomingQian,A high efficiency flyback converter with new active clamp technique, Power Electronics, IEEE Transactions, 2010.
+[7]  Zhang J.,  Huang X.,  Wu X.,   Qian Z. A high efficiency flyback converter with new active clamp technique. In IEEE Transactions on Power Electronics, 25(7):1775-1785, 2010.
-[8] B. Sun, R. Burgos, and D. Boroyevich, Ultralow input–output capacitance PCB-embedded dual-output gate-drive power supply for 650 V GaN-based half-bridges,” IEEE Trans. Power Electron.,34-2:1382–1393, 2019.
+[8] B. Sun, R. Burgos, and D. Boroyevich, Ultralow input–output capacitance PCB-embedded dual-output gate-drive power supply for 650 V GaN-based half-bridges. IEEE Trans. Power Electron., 34(2):1382–1393, 2019.
-[9] J. Park, Quasi-resonant (qr) controller with adaptive switching frequency reduction scheme for flyback converter, IEEE Trans. Ind. Electron., 63- 6:3571–3581,2016.
+[9] Park J. et al. Quasi-resonant (qr) controller with adaptive switching frequency reduction scheme for flyback converter. IEEE Trans. Ind. Electron., 63(6):3571–3581, 2016.
-[10] M Murali, A Arulmozhiyal& P Sundaramoorthy, [https://scholar.google.co.in/scholar?oi=bibs&cluster=15422329214532501781&btnI=1&hl=en A Design and Analysis of voltage source inverter for renewable energy applications],Telkomnika Indonesian Journal of Electrical,27-4: 36-45, 2014.
+[10] Murali M., Arulmozhiyal A., Sundara Moorthy P. A design and analysis of voltage source inverter for renewable energy applications. Telkomnika Indonesian Journal of Electrical, 27-4:36-45, 2014.
-[11] M Muniraj, Investigation on Solar PV generation and design of switched reluctance motor for Smart Agriculture actuation system, Brazilian Archives of Biology and Technology: 61-2, 2018.
+[11] Murali M., Arulmozhiyal R. Investigation on Solar PV generation and design of switched reluctance motor for Smart Agriculture actuation system. Brazilian Archives of Biology and Technology, 61:e18160767, 2018.
-[12] C. Wang, A Novel ZCS-PWM Flyback Converter With a Simple ZCS-PWM Commutation Cell,IEEE Transactions on Industrial Electronics,55-2:749-757, 2008.
+[12] Wang C.-M. A novel ZCS-PWM flyback converter with a simple ZCS-PWM commutation cell. IEEE Transactions on Industrial Electronics, 55(2):749-757, 2008.

← Older revision		Revision as of 08:59, 5 October 2022
Line 272:		Line 272:

	==References==		==References==
		+	<div class="auto" style="text-align: left;width: auto; margin-left: auto; margin-right: auto;font-size: 85%;">

	[1] MediPallavi, S.L.V Sravan Kumar, N.Ravishankar Reddy.An Integrated Boost Parallel Flyback Converter for Multi Load Applications. International Journal of Innovative Technology and Exploring Engineering.8:42-48, 2019.		[1] MediPallavi, S.L.V Sravan Kumar, N.Ravishankar Reddy.An Integrated Boost Parallel Flyback Converter for Multi Load Applications. International Journal of Innovative Technology and Exploring Engineering.8:42-48, 2019.

@@ Line 194: / Line 194: @@
 |  style="text-align: center;font-size: 75%;"|(a)
 |-
-|  style="text-align: center;padding:10px;"| [[File:Arumozhiyal_S.Saravanakumar_2021a_5604_Fig9b.jpg]]
+|  style="text-align: center;padding:10px;"| [[File:Arumozhiyal_S.Saravanakumar_2021a_5604_Fig9b.jpg|246px]]
 |-
 |  style="text-align: center;font-size: 75%;"|(b)

@@ Line 194: / Line 194: @@
 |  style="text-align: center;font-size: 75%;"|(a)
 |-
-|  style="text-align: center;padding:10px;"| [[Image:Draft_Muniraj_435703650-image14.png|246px]]
+|  style="text-align: center;padding:10px;"| [[File:Arumozhiyal_S.Saravanakumar_2021a_5604_Fig9b.jpg]]
 |-
 |  style="text-align: center;font-size: 75%;"|(b)

@@ Line 187: / Line 187: @@
 The switching frequency of proposed converter set to operate at 500 kHz and obtain zero voltage through PWM switching technique.The PV cell output fed to proposed converter further the carrier and reference signal is compared based on inputs side to side from the hall-effect sensor obtains the signal carrier and reference signal is compared and pulse generated to drive proposed converter to transfer power from converter to grid.  The conventional flyback converter output voltages are 22 V for 25%, 23.6 V for 50% and 30.9 V for 75% duty cycles from the input of 12V as shown in [[#img-9|Figures 9]](a) and (b).
-<div id='img-9'></div>ES LA MISMA IMAGEN (A Y B). PEDIR CORREGIR AL AUTOR
+<div id='img-9'></div>
 {| style="text-align: center; border: 1px solid #BBB; margin: 1em auto; width: auto;max-width: auto;"
 |-

@@ Line 185: / Line 185: @@
-The switching frequency of proposed converter set to operate at 500 kHz and obtain zero voltage through PWM switching technique.The PV cell output fed to proposed converter further the carrier and reference signal is compared based on inputs side to side from the hall-effect sensor obtains the signal carrier and reference signal is compared and pulse generated to drive proposed converter to transfer power from converter to grid.  Theconventional flyback converter output voltages are 22 V for 25%, 23.6 V for 50% and 30.9 V for 75% duty cycles from the input of 12V as shown in [[#img-9|Figures 9]](a) and (b).
+The switching frequency of proposed converter set to operate at 500 kHz and obtain zero voltage through PWM switching technique.The PV cell output fed to proposed converter further the carrier and reference signal is compared based on inputs side to side from the hall-effect sensor obtains the signal carrier and reference signal is compared and pulse generated to drive proposed converter to transfer power from converter to grid.  The conventional flyback converter output voltages are 22 V for 25%, 23.6 V for 50% and 30.9 V for 75% duty cycles from the input of 12V as shown in [[#img-9|Figures 9]](a) and (b).
 <div id='img-9'></div>ES LA MISMA IMAGEN (A Y B). PEDIR CORREGIR AL AUTOR
@@ Line 265: / Line 265: @@
-The performance comparisons of proposed interleaved flyback converter with H6 inverter configuration and flyback converter are registered through Table II.In aspects of power handling capability and efficiency is improved under various load conditions due of the proposed H6 inverter techniques proposed with flyback converter technique.
+The performance comparisons of proposed interleaved flyback converter with H6 inverter configuration and flyback converter are registered through [[#tab-2|Table 2]]. In aspects of power handling capability and efficiency is improved under various load conditions due of the proposed H6 inverter techniques proposed with flyback converter technique.
 ==6. Conclusion==

@@ Line 102: / Line 102: @@
 ==4. Simulation results and discussion==
-The simulation is carried out to get an idea of interleaved flyback converter with H6 type inverter. The simulation is carried out in MATLAB/ Simulink software as shown in [[#img-4|Figure 4]] and corresponding control signal generation blocks with PLL loop is described in [[#img-5|Figure 5]]. The maximum power point tracking is not given much importance. The grid side voltage is taken as reference and fed to phase locked loop to get a sinusoidal signal which is then fed to PI controller and with this a pulse signal to H6 type inverter is obtained.The simulation results shown in [[#img-6|Figure 6]] generation of PWM signal fed to drive interleved fluback converter based phase locked loop and output volatges and current. Different modes of boost shown in [[#img-7|Figure 7]] with filter and without filter for linear and non-linear loads.
+The simulation is carried out to get an idea of interleaved flyback converter with H6 type inverter. The simulation is carried out in MATLAB/ Simulink software as shown in [[#img-4|Figure 4]], and corresponding control signal generation blocks with PLL loop is described in [[#img-5|Figure 5]]. The maximum power point tracking is not given much importance. The grid side voltage is taken as reference and fed to phase locked loop to get a sinusoidal signal which is then fed to PI controller and with this a pulse signal to H6 type inverter is obtained.The simulation results shown in [[#img-6|Figure 6]] generation of PWM signal fed to drive interleved fluback converter based phase locked loop and output volatges and current. Different modes of boost shown in [[#img-7|Figure 7]] with filter and without filter for linear and non-linear loads.
 <div id='img-4'></div>

@@ Line 99: / Line 99: @@
 |style="padding:10px;"| [[Image:Draft_Muniraj_435703650-image7.png|420px]]
 |}
 ==4. Simulation results and discussion==