Efficiency of Natural Photosensitizer for Renewable Energy Conversion and Storage through Photogalvanic Cells

Authors

  • Shachi Tiwari, Chandrakanta Mall, Jitendra Kumar Chaurasiya, Rohit Kumar, Prem Prakash Solanki

Keywords:

Natural photosensitizer, solar energy, chlorophyll, reductant, photogalvanic cell

Abstract

The enhanced global energy need of clean, cheap and sustainable energy has introduced research into solar energy conversion and storage technologies. Photogalvanic cells offer a promising route for sustainable energy conversion directly into electrical energy with inherent storage capacity. The significant component of these cells is photosensitizer which absorb the sunlight and start the cell reaction. Natural photosensitizers are eco-friendly, low cost, high abundance, non-toxic and biodegradable that’s why in recent years growing attention has been focused toward the application of it in photogalvanic cell. Hence, this study represents a comprehensive work of use of natural photosensitizer in photogalvanic cells. The basics of photogalvanic cells are also discussed followed by an investigation of the overall performance of the cell. Factor affecting all parameters of the cell, limitations, advantages and recent development to enhance the shortcoming of use of natural photosensitizer in the cell are crucially overview. Lastly upcoming prospects and challenges related to natural photosensitizer in photogalvanic cells are emphasized with their potential character in sustainable solar energy conversion and storage.   

References

Al- Ezzi, A., S., Ansari, M.N.M. Photovoltaic Solar Cells: A Review. Applied system innovation. 5 (4): 67, 2022.

Al Mubarak, Rezaee, R., Wood, D.A. Economic, Societal and Environmental Impacts of Available Energy Sources: A Review. Eng. 5(3) (2024): 1232-1265.

Ameta, SC., Khamesra, S., Chittora A.K., Gangotri, K.M., Use of sodium lauryl sulfate in a photogalvanic cell for solar energy conversion. Z Phys Chem, 16, 1988, 245-252.

Ameta, SC., Khamesra, S., Jain, N.K., Gangotri, K.M., Use of tergitol-7 in photogalvanic cell for solar energy conversion and storage: methylene blue-EDTA system.Pol J Chem, 65, 1991, 1415-1419.

Ameta, SC., Khamesra, S., Jain, N.K., Gangotri, K.M., Use of tergitol-7 in photogalvanic cell for solar energy conversion and storage: methylene blue-EDTA system. Pol J Chem, 65, 1991, 1414-1419.

Athil, S., Al-Ezzi, Ansari, M.N.M. Photovoltaic Solar Cells: A Review. Applied System Innovation 5 (4), 67, 2022, 1-8.

Bhimwal, M.K., Gangotri, K.M., A comparative study on the performance of photogalvanic cells with different photosensitizers for solar energy conversion and storage, D-Xylose- NaLS system, Energy, 36, 2011, 1324-1331.

Bordatchev, E. Enhancement of Photovoltaic cell performance using periodic trangular grating. Journal of Photonics for Energy, 4,1, 2014, 044599.

Calogero, G., Marco, G. Red Sicilian orange and purple eggplant fruits as natural sensitizer for dye-sensitized solar cells, Solar Energy, 82, 616-622.

Chandra, V.K., Chandra, B.P., Piyush, Jha, Organic light-emitting diodes and their application, Defect and diffusion forum, 357, 29-93, 2014, 1-8.

Das, S., Sparks, A., Poves, E., Videv, S., Fakidis, J., Hass, H. Effect of Sunlight on Photovoltaics as Optical Wireless Communication Receivers. Journal of Lightwave Technology, 39, 19, 2021, M1-8.

Depauw, V., Meng, X., El Daif, O., Gomard, G., Lalout, L., Drouard, E., Trompoukis, C., Fave, A., Seassal, C., Gordon, I., Micrometer-Thin Crystalline-Silicon Solar Cells Integrating Numerically Optimized 2-D Photonic Crystals. 2286521, 2013, 1-21.

Gangotri, K.M., Bhimwal, M.K., Study the performance of photogalvanic cells for solar energy conversion and storage, toluidine blue-D-Xylene-NaLS system. International Journal of Energy Resources, 35, 2011, 545-552.

Gangotri, K.M., Regar, O.P., Lal, C., Kalla, P., Genwa, K.R., Meena, R. Use of tergitol-7 in photogalvanic cell for solar energy conversion and storage, toluidine blue-glucose system. International Journal of Energy Research, 20, 1996, 581-8.

Genwa, K.R., Mahaveer, P.L. Photogalvanic effect, comparative studies in three dyes rhodamine B, methylene blue and safranine. Journal of Indian Chemical Society, 83, 2006, 165-167.

Gratzel, M. Dye-sensitized solar cells. Journal of Photochemistry and Photobiology C: Photochemistry Reviews, 4 (2), 145-153 (2023)

Hagemann Ole, Bjerring Morten, Nielsen Niels G. Krab C Frederik. All solution processed tandem Polymer solar cells based on thermocleavable materials. Solar Energy Materials and Solar Cells. 92, 11, 2008, 1327-1335.

Hagfeldt, A., Boschloo, G., Sun, L., Kloo, L. Pettersson, H. Dye-sensitized solar cells. Chemical Reviews, 110 (11), 6595-6663.

Hernandez Serrano, P.V., Zaveri, A. Venturing the Definition of Green Energy Transition: A Systematic Literature Review. (2020).

Jaiswal, K., Roy Chowdhury, C., Yadav, D., Verma, R. Renewable and sustainable clean energy development and impact on social, economic and environmental health. Energy Nexus 7 (2022): 100118.

Jung, H.S., Lee, J.K., Dye Sensitized Solar Cells for Economically Viable Photovoltaic Systems. Journal of Physical Chemistry Letters, 4 (10), 1682-1693 (2013)

Kalyansundaram, K., Gratzel, M. Photogalvanic effects of dye-reductant system in aqueous solution. Journal of Physical Chemistry. 84, 2380-2387.

Kazmerski, L., L. Photovoltaics: Areview of cell and module technologies. Renewable and Sustainable Energy Reviews 1 (1-2), 1997, 71-170.

Koli, P. Photogalvanic Cells using Natural Photosensitizers (Chlorophyll). RSC Advances, 4, 2014, 46194-46202.

Li, G., Zhu, R., Yang, Y. Polymer solar cells. Nature Photonics 6, 153-161 (2012).

Liang, G., Liu, F., Mo, et al. Self-healable electroluminescent devices, Light: Science and Application, 7, Article, 102, 2018.

Ma, H. et al. A survey of the structure, fabrication and characterization of advanced organic light-emitting diodes, Microelectronics Reliability, 144, 114959, 2023.

Mall, C., Tiwari, S., Solanki, P.P. Comparison of dye (oxazine and thiazine) materials as a photosensitizer for use in photogalvanic cells based on molecular interaction with sodium dodecyl sulphate by spectral study, Journal of Saudi Chemical Society, 23, 2019,83–91.

Mall, C., Tiwari, S., Solanki, P.P. Studies of binding of oxazine and thiazine dyes with cetyltrimethylammonium bromide and tween 80 surfactant spectrophotometrically for the photogalvanic cell for solar energy conversion and storage, Surfaces and Interfaces, 20, 2021, 101547.

Maoding Cheng, Jingtian Jiang et al. Progress and Application of Halide perovskite Materials for Solar Cells and Light Emitting Devices, Nanomaterials, 14, 391, 2024.

Mingxuan, Qiu, Wanjun, Li. Photovoltaic and electroluminescence performance of multifunctional devices with PbCl2, MACl additives 2024.

Mohan Lal, Gangotri, K.M., The optimum conversion efficiency in Nile Blue-Arbinose system by photogalvanic cell, Advances in Energy Research, 3, 3, 2015, 143-155.

Nan, H., et al. Studies on the optical and photoelectric properties of anthocyanin and chlorophyll as natural co-sensitizers in dye-sensitized solar cell. Optical Materials, 73, 172-178.

Nasser, B. Tawalbeh, M., Al-Othman, A., Yusuf, M. Contributions of Green Energy Materials to Sustainable Development Goals. Renewable Sustainable Energy Technology (2025).

Nenival, N.R., Study on effect of reductant on photosensitizer for solar energy conversion and storage, Bismark brown-oxalic acid system. Interantional Journal ChemTech Research, 4, 2012, 213-222.

O’Regan, B., Gratzel, M. A low-cost, high-efficiency solar ce4ll based on dye-sensitized colloidal TiO2 films. Nature, 353, 737-740 (1991).

Oono, T. et al. A pathway to coexistence of electroluminescence and efficient photovoltaic performance in organic devices, Nature Communications 2025.

Rabinowitch E. The photogalvanic effect. I. The photochemical properties of the thionine-iron system. Journal of Chemical Physics 1940: 8: 551-559.

Rahman, N., H., A., Manut, A., Rusop, M. Review on Electroluminescence behaviour of organic light emitting diode, Advanced Materials Research, 832, 2013, 455-459.

Rahman, S., Haleem, A., Siddiq, M.K., Hussain, M.K., Qamar, S., Hameed, S., Waris, M. Research on dye-sensitized solar cells: recent advancement toward the various constituents of DSSCs for efficiency enhancement and future prospects. RSC Advances, 13, 19508-19529 (2023)

Rai, M., Mahdi, M., Mahdi Tavakoli, W., Tress, Milic, J.V., Kubicki, D., Emsley, L., Gratzel, M. Effect of perovskite, thickness on electroluminescence and solar cell conversion efficiency, The Journal of Physical Chemistry Letters 11, 2020, 3310-3320.

Regan, O., Gratzel, M., Alow-cost, high-efficiency solar cell based on dye-sensitized colloidal TiO2.films. Nature, 353, 737-740.

Sharma, K., Sharma, V., Sharma, S.S. Dye-Sensitized solar cells: Fundamentals and Current Status. Nanoscale Research Letters, 1q3, 381 (2018)

Sharma, K.D., et al. Performance of natural dye-based photogalvanic cells for solar energy conversion. Solar Energy, 37, 20222, 1-8.

Tang, C., W., Vanslyke, A., Organic electroluminescent diodes, Applied Physics Letters, 51, 12, 1987, 913-915.

Tang, C.W., Vanslyke, A. Organic electrolumincent diodes, Applied physics Letters, 51, 12, 1987, 913-915.

Wang, Z. et al. Efficient and stable perovskite solar cells enabled by rubidium incorporation, Advance Energy Materials, 8(22), 2018, 1800278.

Wanzhu, Cai., Xiong Gang., Yong, Cao. Polymer solar cells: Recent development and possible routes for improvement in the performance. Solar Energy Materials and Solar Cells, 94, 2, 2010, 114-127.

Wenger, O.S.Iron N-heterocyclic carbene complexes as sensitizers for dye-sensitized solar cells. Journal of American Chemical Socity, 135, 11437-11440.

Xinjie Tao, Yongli Li, Yuechan Li, Dongya Sun, Xie, An, Electroluminescent Polymer Materials and Their Applications, Annales de Chimie-45, 3, 2021, 231-238.

Yan, J., Saunders, B.R. Third-generation solar cells: a review and comparison of polymer: fullerene, hybrid polymer and perovskite solar cells. RSC Advances 4, 2014, 43286-43314.

Yan, J., Saunders, B.R., Third-generation solar cells: a review and comparison of polymer: fullerene, hybrid polymer and perovskite solar cells. RSC Advances 4, 43286-43314 (2014).

Yella, A., et al. Porphyrin-sensitized solar cells with cobalt (II/III)-based redox electrolyte exceed 12 percent efficiency. Science 334, 629-634 (2011).

How to Cite

Shachi Tiwari, Chandrakanta Mall, Jitendra Kumar Chaurasiya, Rohit Kumar, Prem Prakash Solanki. (2026). Efficiency of Natural Photosensitizer for Renewable Energy Conversion and Storage through Photogalvanic Cells. International Journal of Research & Technology, 14(S1), 460–471. Retrieved from https://ijrt.org/j/article/view/1040

Similar Articles

<< < 4 5 6 7 8 9 10 11 12 13 > >> 

You may also start an advanced similarity search for this article.