Carbon-based brilliance: a novel approach to renewable energy in radiotherapy centers

被引:1
|
作者
Venkatraman, Pitchaikannu [1 ]
Aggarwal, Lalit Mohan [1 ]
Choudhary, Sunil [1 ]
机构
[1] Banaras Hindu Univ, Inst Med Sci, Dept Radiotherapy & Radiat Med, Varanasi 221005, India
关键词
POSITIVE-ION DETECTOR; ACTIVATED CARBON; COCONUT SHELL; ELECTRODE; BIOMASS; PERFORMANCE; BAMBOO; WASTE; HUSK;
D O I
10.1093/rpd/ncae034
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The energy produced from other sources which does neither come from fossil fuels nor contribute in the production of any greenhouse effects that causes climate changes is called as 'Alternative Energy'. Since our world's primary energy sources such as coal, oil and natural gases are exploited to a greater extent, we are in an urge to switch to an alternative energy. Scattered radiation, a common byproduct in radiation therapy and diagnostic radiology, presents a unique opportunity in the realm of alternative energy. As a potential source of interference, scattered radiation can be repurposed to contribute to sustainable energy solutions. Addressing the issue of scattered radiation wastage and utilizing it for alternative energy, an activated carbon-based solar cell emerges as a solution. This solar cell, a conventional one in which cadmium Telluride is replaced by coconut shell based carbon material, has the potential in producing a significant amount of electrical energy by utilizing scattered radiation from radiotherapy and radiology machines. Furthermore, this activated carbon based-material undergoes thorough characterization into various teletherapy and radiology machines, and it can be seamlessly integrated into clinical practices.
引用
收藏
页码:1189 / 1196
页数:8
相关论文
共 50 条
  • [31] KOH activation of carbon-based materials for energy storage
    Wang, Jiacheng
    Kaskel, Stefan
    JOURNAL OF MATERIALS CHEMISTRY, 2012, 22 (45) : 23710 - 23725
  • [32] The Energy Storage Properties of Supercapacitors with Carbon-Based Electrodes
    Durajski, A. P.
    Gruszka, K.
    Giza, K.
    Niegodajew, P.
    ACTA PHYSICA POLONICA A, 2020, 138 (02) : 148 - 151
  • [33] Energy threshold of brittle destruction for carbon-based materials
    Bazylev, B. N.
    Koza, Y.
    Landman, I. S.
    Linke, J.
    Pestchanyi, S. E.
    Wuerz, H.
    PHYSICA SCRIPTA, 2004, T111 : 213 - 217
  • [34] A novel carbon-based ionic conductor for humidity sensors
    Lukaszewicz, JP
    Skompska, M
    SENSORS AND ACTUATORS B-CHEMICAL, 2006, 113 (02) : 970 - 977
  • [35] Advanced Carbon-Based Nanocatalysts and their Application in Catalytic Conversion of Renewable Platform Molecules
    Chen, Zemin
    Zeng, Xiang
    Wang, Shenyu
    Cheng, Aohua
    Zhang, Ying
    CHEMSUSCHEM, 2022, 15 (11)
  • [36] Approach to the carbon-based superlattice structure solar cell
    Kojima, N
    Goetzberger, O
    Ohshita, Y
    Yamaguchi, M
    CONFERENCE RECORD OF THE TWENTY-EIGHTH IEEE PHOTOVOLTAIC SPECIALISTS CONFERENCE - 2000, 2000, : 873 - 875
  • [37] Assembly and electrochemical testing of renewable carbon-based anodes in SIBs: A practical guide
    Darío Alvira
    Daniel Antorán
    Joan J.Manyà
    Journal of Energy Chemistry , 2022, (12) : 457 - 477
  • [38] Assembly and electrochemical testing of renewable carbon-based anodes in SIBs: A practical guide
    Alvira, Dario
    Antoran, Daniel
    Manya, Joan J.
    JOURNAL OF ENERGY CHEMISTRY, 2022, 75 : 457 - 477
  • [39] Synthesis of a novel carbon-based microwave absorbent.
    Xing, W
    Yan, ZF
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2002, 223 : C84 - C84
  • [40] An in situ approach to robust superhydrophobic carbon-based film
    Zhang, Renhui
    Pu, Jibin
    SURFACE AND INTERFACE ANALYSIS, 2016, 48 (12) : 1345 - 1349