Economic Evaluation of a Hybrid Hydrogen Liquefaction System Utilizing Liquid Air Cold Recovery and Renewable Energies | ||
| Renewable Energy Research and Applications | ||
| دوره 4، شماره 1، فروردین 2023، صفحه 125-143 اصل مقاله (1017.35 K) | ||
| نوع مقاله: Original Article | ||
| شناسه دیجیتال (DOI): 10.22044/rera.2022.11899.1122 | ||
| نویسندگان | ||
| M. Taghavi1؛ H. Salarian* 1؛ B. Ghorbani2 | ||
| 1Department of Mechanical Engineering, Nour Branch, Islamic Azad University, Nour, Iran. | ||
| 2Faculty of Engineering Modern Technologies, Amol University of Special Modern Technologies, Amol, Iran. | ||
| چکیده | ||
| The present study economically evaluates a combined hydrogen liquefaction configuration using combined heat and power system, photovoltaic cells unit and liquid air energy recovery for precooling under climatic states of Yazd, Iran. The LAC recovery is used to precool hydrogen. Moreover, the cascade refrigeration systems with helium and hydrogen refrigerants are employed to supply refrigeration and liquefaction. The rest of the power required for refrigeration cycles to liquefy hydrogen is supplied by PVC unit. This integrated structure generates liquid hydrogen by receiving 5559 kW of power from PVC unit, 60.79 kg/h of natural gas, 8000 kg/h of liquid air and 1028 kg/h of gaseous hydrogen as inputs. The annualized cost of the configuration is applied to economically evaluate the hydrogen liquefaction system using renewable energies. The developed integrated structure is economically evaluated by HYSYS V10 software and m-file code in the MATLAB package. The economic research results of the hybrid cycle indicate the period of return, prime price of liquid hydrogen production and additive value are 4.249 years, 5.432 USD/kg LH2 and 1.567 USD/kg LH2, respectively. The economic sensitivity examination of the combined system reveals POR increases from 2.295 to 13.97 years and net annual profit decreases from 32.66 to 5.366 MMUSD/year by increasing the gaseous hydrogen cost from 1.4 to 3.4 USD/kg LH2. Moreover, POR increases from 2.753 to 25.07 years and levelized cost of product increases from 5.02 to 7.488 US$/kg LH2 by increasing the capital cost from 52.5 to 217.5 MMUSD. | ||
| کلیدواژهها | ||
| Hydrogen liquefaction؛ Liquid air cold energy recovery؛ Photovoltaic (PV) panels؛ Sensitivity analysis؛ Economic evaluation | ||
| مراجع | ||
|
[1] Wolfgang Lubitz and William Tumas, Hydrogen: An Overview, Chemical Reviews 107, 2007.
[2] "Liquefaction of hydrogen with emphasis on precooling processes." 12th Cryogenic - IIR Conference. Dresden. (2012).
[3] Notardonato, W. U., "Analysis and Testing of an Integrated Refrigeration and Storage System for Liquid Hydrogen Zero Boil-Off, Liquefaction, and Densification." (2006), University of Florida.
[4] Chanchetti, Lucas Faccioni, Daniel Rodrigo Leiva, Leandro Innocentini Lopes de Faria, and Tomaz Toshimi Ishikawa. "A scientometric review of research in hydrogen storage materials." International Journal of Hydrogen Energy 45(8), (2020): 5356-5366.
[5] Masoud Taghavi, Hesamoddin Salarian, and Bahram Ghorbani, "Thermodynamic and exergy evaluation of a novel integrated hydrogen liquefaction structure using liquid air cold energy recovery, solid oxide fuel cell and photovoltaic panels," Journal of Cleaner Production 320. (2021): 128821.
[6] L. El Chaar, L. A. lamont, and N. El Zein, Review of photovoltaic technologies, Renewable and Sustainable Energy Reviews 15(5), (2011), 2165-2175.
[7] Omar Z. Sharaf and Mehmet F. Orhan, An overview of fuel cell technology: Fundamentals and applications, Renewable and Sustainable Energy Reviews 32, (2014), 810-853.
[8] G. Squadrito, L. Andaloro, M. Ferraro, and V. Antonucci, Hydrogen fuel cell technology, Advances in Hydrogen Production, Storage and Distribution, (2014), 451-498.
[9] Ahmad Naquash, Muhammad Abdul Qyyum, Muhammad Islam, Noman Raza Sial, Seongwoong Min, Sanggyu Lee, and Moonyong Lee. "Performance enhancement of hydrogen liquefaction process via absorption refrigeration and organic Rankine cycle-assisted liquid air energy system." Energy Conversion and Management 254 (2022): 115200.
[10] Amjad Riaz, Muhammad Abdul Qyyum, Seongwoong Min, Sanggyu Lee, Moonyong Lee. "Performance improvement potential of harnessing LNG regasification for hydrogen liquefaction process: Energy and exergy perspectives." Applied Energy 301 (2021): 117471.
[11] Øivind Wilhelmsen, David Berstad, Ailo Aasen, Petter Nekså, Geir Skaugen. "Reducing the exergy destruction in the cryogenic heat exchangers of hydrogen liquefaction processes." International Journal of Hydrogen Energy 43(10), (2018): 5033-5047.
[12] Mohammad Hossein Nabat, Mirhadi Zeynalian, Amir Reza Razmi, Ahmad Arabkoohsar, and M. Soltani. "Energy, exergy, and economic analyses of an innovative energy storage system; liquid air energy storage (LAES) combined with high-temperature thermal energy storage (HTES)." Energy Conversion and Management 226 (2020): 113486.
[13] Yunus Emre Yuksel, Murat Ozturk, Ibrahim Dincer. "Energy and exergy analyses of an integrated system using waste material gasification for hydrogen production and liquefaction." Energy Conversion and Management 185 (2019): 718-729.
[14] Ahmad Naquash, Muhammad Abdul Qyyum, Seongwoong Min, Sanggyu Lee, and Moonyong Lee. "Carbon-dioxide-precooled hydrogen liquefaction process: An innovative approach for performance enhancement–Energy, exergy, and economic perspectives." Energy Conversion and Management 251 (2022): 114947.
[15] Önder Kaşka, Ceyhun Yılmaz, Onur Bor, and Nehir Tokgöz. "The performance assessment of a combined organic Rankine-vapor compression refrigeration cycle aided hydrogen liquefaction." International Journal of Hydrogen Energy 43(44), (2018): 20192-20202.
[16] Jae-Hyeon Yang, Younggak Yoon, Mincheol Ryu, Su-Kyung An, Jisup Shin, and Chul-Jin Lee. "Integrated hydrogen liquefaction process with steam methane reforming by using liquefied natural gas cooling system." Applied Energy 255 (2019): 113840.
[17] Mohammad Hasan Khoshgoftar Manesh and Bahram Ghorbani. "Energy and exergy analyses of an innovative energy storage configuration using liquid air integrated with Linde-Hampson liquefaction system, molten carbonate fuel cell, and organic Rankine cycle." Journal of Energy Storage (2021): 103676.
[18] Murat Koc, Yunus Emre Yuksel, and Murat Ozturk. "Thermodynamic assessment of a novel multigenerational power system for liquid hydrogen production." International Journal of Hydrogen Energy (Available online 11 January 2022).
[19] Yujing Bi, Liang Yin, Tianbiao He, and Yonglin Ju. "Optimization and analysis of a novel hydrogen liquefaction process for circulating hydrogen refrigeration." International Journal of Hydrogen Energy 47(1), (2022): 348-364.
[20] Shengan Zhang, Guilian Liu. "Design and performance analysis of a hydrogen liquefaction process." Clean Technologies and Environmental Policy 24 (2022): 51-65.
[21] Saman Faramarzi, Seyed Mojtaba Mousavi Nainiyan, Mostafa Mafi, and Ramin Ghasemiasl. "A novel hydrogen liquefaction process based on LNG cold energy and mixed refrigerant cycle." International Journal of Refrigeration 131 (2021): 263-274.
[22] Armin Ebrahimi, Mohammad Hossein Monajati Saharkhiz, and Bahram Ghorbani. "Thermodynamic investigation of a novel hydrogen liquefaction process using thermo-electrochemical water splitting cycle and solar collectors." Energy Conversion and Management 242 (2021): 114318.
[23] Dongjun Lee, Dela Quarme Gbadago, Youngtak Jo, Gyuyoung Hwang, Yeonpyeong Jo, Robin Smith, and Sungwon Hwang. "Integrating hydrogen liquefaction with steam methane reforming and CO2 liquefaction processes using techno-economic perspectives." Energy Conversion and Management 245 (2021): 114620.
[24] Shaimaa Seyam, Ibrahim Dincer, and Martin Agelin-Chaab. "Analysis of a clean hydrogen liquefaction plant integrated with a geothermal system." Journal of Cleaner Production 243 (2020): 118562.
[25] Yunus Emre Yuksel, Murat Ozturk, and Ibrahim Dincer. "Analysis and assessment of a novel hydrogen liquefaction process." International Journal of Hydrogen Energy 42(16), (2017): 11429-11438.
[26] Anwar Hammad and Ibrahim Dincer. "Analysis and assessment of an advanced hydrogen liquefaction system." International Journal of Hydrogen Energy 43(2), (2018): 1139-1151.
[27] U. Cardella, L. Decker, and H. Klein. "Roadmap to economically viable hydrogen liquefaction." International Journal of Hydrogen Energy 42(19), (2017): 13329-13338.
[28] Mehmet Kanoglu, Ceyhun Yilmaz, and Aysegul Abusoglu. "Geothermal energy use in absorption precooling for Claude hydrogen liquefaction cycle." International Journal of Hydrogen Energy 41(26), (2016): 11185-11200.
[29] Majid Aasadnia, Mehdi Mehrpooya, and Bahram Ghorbani. "A novel integrated structure for hydrogen purification using the cryogenic method." Journal of Cleaner Production 278 (2021): 123872.
[30] Jiang Bian, Jian Yang, Yuxing Li, Zhaoqi Chen, Fachun Liang, and Xuewen Cao. "Thermodynamic and economic analysis of a novel hydrogen liquefaction process with LNG precooling and dual-pressure Brayton cycle." Energy Conversion and Management 250 (2021): 114904.
[31] Liang Yin and Yonglin Ju. "Process optimization and analysis of a novel hydrogen liquefaction cycle." International Journal of Refrigeration 110 (2020): 219-230.
[32] Jimena Incer-Valverde, Janis Mörsdorf, Tatiana Morosuk, and George Tsatsaronis. "Power-to-liquid hydrogen: Exergy-based evaluation of a large-scale system." International Journal of Hydrogen Energy (Available online 1 October 2021).
[33] Ceyhun Yilmaz. "Optimum energy evaluation and life cycle cost assessment of a hydrogen liquefaction system assisted by geothermal energy." International Journal of Hydrogen Energy 45(5), (2020): 3558-3568.
[34] Murat Koc, Nejat Tukenmez, and Murat Ozturk. "Development and thermodynamic assessment of a novel solar and biomass energy based integrated plant for liquid hydrogen production." International Journal of Hydrogen Energy 45(60), (2020): 34587-34607.
[35] Songwut Krasae-in, Jacob H. Stang, and Petter Neksa. "Exergy analysis on the simulation of a small-scale hydrogen liquefaction test rig with a multi-component refrigerant refrigeration system." International Journal of Hydrogen Energy 35(15), (2010): 8030-8042.
[36] Yunus Emre Yuksel, Murat Ozturk, and Ibrahim Dincer. "Energetic and exergetic assessments of a novel solar power tower based multigeneration system with hydrogen production and liquefaction." International Journal of Hydrogen Energy 44(26), (2019): 13071-13084.
[37] T. A. H. Ratlamwala, I. Dincer, M. A. Gadalla, and M. Kanoglu. "Thermodynamic analysis of a new renewable energy based hybrid system for hydrogen liquefaction." International Journal of Hydrogen Energy 37(23), (2012): 18108-18117.
[38] Hamed Rezaie Azizabadi, Masoud Ziabasharhagh, and Mostafa Mafi. "Introducing a proper hydrogen liquefaction concept for using wasted heat of thermal power plants-case study: Parand gas power plant." Chinese Journal of Chemical Engineering 40 (2021): 187-196.
[39] Zafer Utlu and Arif Karabuga. "Conventional and enhanced exergy analysis of a hydrogen liquefaction system." International Journal of Hydrogen Energy 46(2), (2021): 2296-2305.
[40] Mohamed A. Gadalla, Tahir Abdul Hussain Ratlamwala, Ibrahim Dincer, and Mehmet Kanoglu. "Performance assessment of an integrated absorption cooling–hydrogen liquefaction system using geothermal energy." International Journal of Exergy 12(2), (2013): 205-225.
[41] Hasan Ozcan and Ibrahim Dincer. "Thermodynamic modeling of a nuclear energy based integrated system for hydrogen production and liquefaction." Computers and Chemical Engineering 90 (2016): 234-246.
[42] F. Ahmadi Boyaghchi and A. Sohbatloo. "Exergetic, exergoeconomic, and exergoenvironmental assessments and optimization of a novel solar cascade organic Rankine cycle-assisted hydrogen liquefaction." Scientia Iranica B 28(1), (2021): 273-290.
[43] Zahra Alizadeh Afrouzy and Masoud Taghavi. "Thermo-economic analysis of a novel integrated structure for liquefied natural gas production using photovoltaic panels." Journal of Thermal Analysis and Calorimetry 145(3), (2021). 1509-1536.
[44] Azra Malik, Ahteshamul Haque, V S Bharath Kurukuru, Mohammed Ali Khan, and Frede Blaabjerg. "Overview of Fault Detection Approaches for Grid Connected Photovoltaic Inverters." e-Prime - Advances in Electrical Engineering, Electronics and Energy, (2022): 100035.
[45] Amirul Syafiq, Vengadaesvaran Balakrishnan, Mohd Syukri Ali, Sanjay J Dhoble, Nasrudin Abd Rahim, Azimah Omar, and Ab Halim Abu Bakar. "Application of transparent self-cleaning coating for photovoltaic panel: a review." Current Opinion in Chemical Engineering 36, (2022): 100801.
[46] Bahram Ghorbani, Gholamreza Salehi, Armin Ebrahimi, and Masoud Taghavi. "Energy, exergy and pinch analyses of a novel energy storage structure using post-combustion CO2 separation unit, dual pressure Linde-Hampson liquefaction system, two-stage organic Rankine cycle and geothermal energy." Energy 233. (2021): 121051.
[47] Armin Ebrahimi, Bahram Ghorbani, and Masoud Taghavi. "Pinch and exergy evaluation of a liquid nitrogen cryogenic energy storage structure using air separation unit, liquefaction hybrid process, and Kalina power cycle." Journal of Cleaner Production 305. (2021): 127226. | ||
|
آمار تعداد مشاهده مقاله: 3,192 تعداد دریافت فایل اصل مقاله: 1,192 |
||