[1] Rouhani, A., & Hejcman, M. (2024). A review of soil pollution around municipal solid waste landfills in Iran and comparable instances from other parts of the world. International Journal of Environmental Science and Technology, 1–18.
[2] Yavari, M. A., Mollasalehi, A., Baghdadi, M., & Sangani, M. M. M. (2026). Efficient and reusable N-doped phenylenediamine/fly ash-based carbon composite derived from acid-washed municipal solid waste incinerator fly ash for Cr(VI) photoreduction under visible light. Results in Chemistry, Article 103392.
[3] Manheim, D. C., Yeşiller, N., & Hanson, J. L. (2021). Gas emissions from municipal solid waste landfills: A comprehensive review and analysis of global data. Journal of the Indian Institute of Science, 101(4), 625–657.
[4] SK, M. (2025). Assessing vulnerability of a solid waste management system through GIS and the Rank Sum method: A case study of Durgapur city, India. Advances in Environmental Technology, 11(1), 36–62.
[5] Tajfar, I., Pazoki, M., Pazoki, A., Nejatian, N., & Amiri, M. J. (2023). Analysis of heating value of hydro-char produced by hydrothermal carbonization of cigarette butts. Pollution, 9(3), 1273–1280.
[6] Pazoki, A., Barikani, M., Ghasemzadeh, R., & Pazoki, M. (2024). Investigating the impact of process parameters on waste tire pyrolysis and characterizing the resultant chars and oils. International Journal of Human Capital in Urban Management, 509–520.
[7] Ibarra-Esparza, F. E., Verduzco Garibay, M., Lara-Topete, G. O., González-López, M. E., Orozco-Nunnelly, D. A., Aguilar-Juárez, O., ... & Gradilla-Hernández, M. S. (2022). A micro- and macro-scale look at the biochemical methanogenic potential of the organic fraction of municipal solid waste generated in a large city of a developing country. Frontiers in Environmental Science, 10, Article 1020208.
[8] Karanjekar, R. V., Bhatt, A., Altouqui, S., Jangikhatoonabad, N., Durai, V., Sattler, M. L., ... & Chen, V. (2015). Estimating methane emissions from landfills based on rainfall, ambient temperature, and waste composition: The CLEEN model. Waste Management, 46, 389–398.
[9] Larson, S. L., Martin, W. A., Şengör, S. S., Wade, R., & Altamimi, F. (2021). Amendment for increased methane production rate in municipal solid waste landfill gas collection systems. Science of the Total Environment, 772, Article 145574.
[10] Liang, C., Das, K. C., & McClendon, R. W. (2003). The influence of temperature and moisture contents regimes on the aerobic microbial activity of a biosolids composting blend. Bioresource Technology, 86(2), 131–137.
[11] Min, K., Lehmeier, C. A., Ballantyne, F., Tatarko, A., & Billings, S. A. (2014). Differential effects of pH on temperature sensitivity of organic carbon and nitrogen decay. Soil Biology and Biochemistry, 76, 193–200.
[12] Rudd, M. A., Jones, M., Sechrest, D., Batten, D., & Porter, D. (2024). An integrated landfill gas-to-energy and Bitcoin mining framework. Journal of Cleaner Production, 472, Article 143516.
[13] Ghasemzadeh, R., Pazoki, A., Tajziehchi, S., Ahmadi, S., & Davami, A. (2025). Optimization and modeling of retention time and temperature parameters in the hydrothermal carbonization process of sewage sludge. Pollution, 11(2), 538–549.
[14] Mohammadianroshanfekr, M., Pazoki, M., Pejman, M. B., Ghasemzadeh, R., & Pazoki, A. (2024). Kinetic modeling and optimization of biogas production from food waste and cow manure co-digestion. Results in Engineering, 24, Article 103477.
[15] Nematollahi, H., Pazoki, A., Ghasemzadeh, R., Tuysserkani, M., & Pazoki, M. (2024). Assessing greenhouse gas emissions and methane production during post-landfill maintenance in Kish Island: A LandGEM simulation approach. Jundishapur Journal of Health Sciences, 16(3).
[16] Zhang, D., Wang, J., & Chen, C. (2020). Gas and liquid permeability in the variably saturated compacted loess used as an earthen final cover material in landfills. Waste Management, 105, 49–60.
[17] Ma, J., Gu, Y., Liu, L., Zhang, Y., Wei, M., Jiang, A., ... & He, C. (2023). Study on the effect of landfill gas on aerobic municipal solid waste degradation: Lab-scale model and tests. Science of the Total Environment, 869, Article 161875.
[18] Huang, D., Yang, L., Xu, W., Chen, Q., Ko, J. H., & Xu, Q. (2020). Enhancement of the methane removal efficiency via aeration for biochar-amended landfill soil cover. Environmental Pollution, 263, Article 114413.
[19] Vaiškūnaitė, R., & Zagorskis, A. (2024). Influence of aeration, introduction of probiotics, and supply of water on landfill gas production: Study of models. Processes, 12(9), Article 1859.
[20] Rafiee, R., Obersky, L., Xie, S., & Clarke, W. P. (2018). Pilot scale evaluation of a model to distinguish the rates of simultaneous anaerobic digestion, composting and methane oxidation in static waste beds. Waste Management, 71, 156–163.
[21] Bohn, S., Brunke, P., Gebert, J., & Jager, J. (2011). Improving the aeration of critical fine-grained landfill top cover material by vegetation to increase the microbial methane oxidation efficiency. Waste Management, 31(5), 854–863.
[22] Wu, X., Yue, B., Huang, Q., Wang, Q., Lin, Y., Zhang, W., & Yan, Z. (2017). Spatio-temporal variation of landfill gas in pilot-scale semi-aerobic and anaerobic landfills over 5 years. Journal of Environmental Sciences, 54, 288–297.
[23] Obersky, L., Rafiee, R., Cabral, A. R., Golding, S. D., & Clarke, W. P. (2018). Methodology to determine the extent of anaerobic digestion, composting and CH₄ oxidation in a landfill environment. Waste Management, 76, 364–373.
[24] Hrad, M., & Huber-Humer, M. (2017). Performance and completion assessment of an in-situ aerated municipal solid waste landfill – Final scientific documentation of an Austrian case study. Waste Management, 63, 397–409.
[25] Li, W., Sun, Y., Wang, H., & Wang, Y. N. (2018). Improving leachate quality and optimizing CH₄ and N₂O emissions from a pre-aerated semi-aerobic bioreactor landfill using different pre-aeration strategies. Chemosphere, 209, 839–847.
[26] Nag, M., Shimaoka, T., Nakayama, H., Komiya, T., & Xiaoli, C. (2016). Field study of nitrous oxide production with in situ aeration in a closed landfill site. Journal of the Air & Waste Management Association, 66(3), 280–287.
[27] Niu, X. X., Wang, S. Z., Niu, Y. C., Wei, L. F., & Yu, L. Y. (2023). Improvement and optimization for the first order decay model parameters at typical municipal solid waste landfills in China. Advances in Climate Change Research, 14(4), 605–614.
[28] Vakalis, S., & Moustakas, K. (2019). Applications of the 3T method and the R1 formula as efficiency assessment tools for comparing waste-to-energy and landfilling. Energies, 12(6), Article 1066.
[29] Mukherjee, A., Apte, S., Sandbhor, S., & Kiir Kuany, D. D. (2025). Recycling spent lithium-ion batteries: A holistic approach for addressing environmental challenges and resource recovery. Advances in Environmental Technology, 11(4), 357–395.
[30]Rawoof, S. A. A., Kumar, P. S., Vo, D. V. N., & Subramanian, S. (2021). Sequential production of hydrogen and methane by anaerobic digestion of organic wastes: A review. Environmental Chemistry Letters, 19(2), 1043–1063.
[31] Wang, X., Lu, X., Li, F., & Yang, G. (2014). Effects of temperature and carbon-nitrogen (C/N) ratio on the performance of anaerobic co-digestion of dairy manure, chicken manure and rice straw: Focusing on ammonia inhibition. PLoS ONE, 9(5), Article e97265. https://doi.org/10.1371/journal.pone.0097265
[32] Bakkaloglu, S., Lowry, D., Fisher, R. E., France, J. L., & Nisbet, E. G. (2021). Carbon isotopic characterisation and oxidation of UK landfill methane emissions by atmospheric measurements. Waste Management, 132, 162–175.
[33] Xia, T., Borjigin, S. G., Raneses, J., Stroud, C. A., & Batterman, S. A. (2023). Mobile measurements of atmospheric methane at eight large landfills: An assessment of temporal and spatial variability. Atmosphere, 14(6), Article 906.
[34] Aghayani, S., Pazoki, M., Bavandpor, A., & Mollasalehi, A. (2026). Assessment of biomass resources in Iran and worldwide: Diversity analysis in rural areas with a focus on municipal solid waste and livestock manure. Pollution, 12(1), 127–139.
