| [1] |
Kappler A, Wuestner ML, Ruecker A, Harter J, Halama M, et al. 2014. Biochar as an electron shuttle between bacteria and Fe(III) minerals. |
| [2] |
Buss W, Wurzer C, Manning DAC, Rohling EJ, Borevitz J, et al. 2022. Mineral-enriched biochar delivers enhanced nutrient recovery and carbon dioxide removal. |
| [3] |
Deng X, Teng F, Chen M, Du Z, Wang B, et al. 2024. Exploring negative emission potential of biochar to achieve carbon neutrality goal in China. |
| [4] |
Palansooriya KN, Li J, Dissanayake PD, Suvarna M, Li L, et al. 2022. Prediction of soil heavy metal immobilization by biochar using machine learning. |
| [5] |
Xiang L, Harindintwali JD, Wang F, Redmile-Gordon M, Chang SX, et al. 2022. Integrating biochar, bacteria, and plants for sustainable remediation of soils contaminated with organic pollutants. |
| [6] |
Mazzurco-Miritana V, Passatore L, Zacchini M, Pietrini F, Peruzzi E, et al. 2025. Promoting the remediation of contaminated soils using biochar in combination with bioaugmentation and phytoremediation techniques. |
| [7] |
Teng X, Huang D, Zhi Y, Li Y, Dong D, et al. 2025. Effects of biochar on soil properties as well as available and TCLP-extractable Cu contents: a global meta-analysis. |
| [8] |
He M, Xu Z, Hou D, Gao B, Cao X, et al. 2022. Waste-derived biochar for water pollution control and sustainable development. |
| [9] |
Yuan X, Wang J, Deng S, Dissanayake PD, Wang S, et al. 2022. Sustainable food waste management: synthesizing engineered biochar for CO2 capture. |
| [10] |
Aminzai MT, Yabalak E. 2025. Advanced polymeric membranes for environmental remediation: emerging roles of hydrochar and biochar composites. |
| [11] |
Chen S, Rotaru AE, Shrestha PM, Malvankar NS, Liu F, et al. 2014. Promoting interspecies electron transfer with biochar. |
| [12] |
Liang D, Liu X, Woodard TL, Holmes DE, Smith JA, et al. 2021. Extracellular electron exchange capabilities of Desulfovibrio ferrophilus and Desulfopila corrodens. |
| [13] |
An T, Chang Y, Xie J, Tang K, Liu Y, et al. 2023. Rapid start-up and long-term stability of anammox with magnetic biochar addition: performance improvement, microbial community, and potential mechanisms. |
| [14] |
Ringsby AJ, Ross CM, Maher K. 2024. Sorption of soil carbon dioxide by biochar and engineered porous carbons. |
| [15] |
Fu S, Li M, de Jong W, Kortlever R. 2023. Tuning the properties of N-doped biochar for selective CO2 electroreduction to CO. |
| [16] |
Schievano A, Berenguer R, Goglio A, Bocchi S, Marzorati S, et al. 2019. Electroactive biochar for large-scale environmental applications of microbial electrochemistry. |
| [17] |
Weng ZH, Cowie AL. 2025. Estimates vary but credible evidence points to gigaton-scale climate change mitigation potential of biochar. |
| [18] |
Sun T, Levin BDA, Schmidt MP, Guzman JJL, Enders A, et al. 2018. Simultaneous quantification of electron transfer by carbon matrices and functional groups in pyrogenic carbon. |
| [19] |
Prévoteau A, Ronsse F, Cid I, Boeckx P, Rabaey K. 2016. The electron donating capacity of biochar is dramatically underestimated. |
| [20] |
Zhao N, Liu Y, Zhang Y, Li Z. 2022. Pyrogenic carbon facilitated microbial extracellular electron transfer in electrogenic granular sludge via geobattery mechanism. |
| [21] |
Ren S, Usman M, Tsang DCW, O-Thong S, Angelidaki I, et al. 2020. Hydrochar-facilitated anaerobic digestion: evidence for direct interspecies electron transfer mediated through surface oxygen-containing functional groups. |
| [22] |
Wang Y, Tian L, Zheng J, Tan Y, Li Y, et al. 2024. Enhancing nitrogen removal in low C/N wastewater with recycled sludge-derived biochar: a sustainable solution. |
| [23] |
Zheng X, Yan G, Wang X, Lam KL. 2024. Identifying life cycle environmental hotspots in phosphorus recovery from wastewater using modified biochars. |
| [24] |
Fan Y, Sun S, Gu X, Yan P, Zhang Y, et al. 2025. Tracing the electron transfer behavior driven by hydrophyte-derived carbon materials empowered autotrophic denitrification in iron-based constructed wetlands: efficacy and enhancement mechanism. |
| [25] |
Zhou W, Chen H, Cui X, Cui D, Cao Q. 2025. The impact of biochar and activated carbon on the purification efficiency of two wetland systems under varying pollution loads. |
| [26] |
Cayuela ML, Sánchez-Monedero MA, Roig A, Hanley K, Enders A, et al. 2013. Biochar and denitrification in soils: when, how much and why does biochar reduce N2O emissions? |
| [27] |
Chen X, Alvarez PJJ, Masiello CA. 2025. Environmentally persistent free radicals in biochar: environmental context and future research needs. |
| [28] |
Liu X, Liu X, Gao S. 2024. The electrochemical mechanism of biochar for mediating the product ratio of N2O/(N2O + N2) in the denitrification process. |
| [29] |
Shi Y, Pang B, Jia Y, Zheng Z, Quan H, et al. 2026. Enhancing nitrogen removal in low C/N wastewater via carbon resource recovery from biochar-mediated anaerobic digestion of discarded cefradine residues. |
| [30] |
Liu L, Zhang C, Chen S, Ma L, Li Y, et al. 2022. Phosphate adsorption characteristics of La(OH)3-modified, Canna-derived biochar. |
| [31] |
An X, Wu Z, Yu J, Ge L, Li T, et al. 2020. High-efficiency reclaiming phosphate from an aqueous solution by bentonite modified biochars: a slow release fertilizer with a precise rate regulation. |
| [32] |
Luo H, Wan Y, Cai Y, Dang Z, Yin H. 2022. Enhanced phosphate adsorption by Mg-stirred leaf biochar in a complex water matrix via active MgO facet exposure. |
| [33] |
Zhang X, Xiong Y, Wang X, Wen Z, Xu X, et al. 2024. MgO-modified biochar by modifying hydroxyl and amino groups for selective phosphate removal: insight into phosphate selectivity adsorption mechanism through experimental and theoretical. |
| [34] |
Fang J, Wang D, Wilkin R, Su C. 2025. Realistic and field scale applications of biochar for water remediation: a literature review. |
| [35] |
Ge X, Wang L, Zhang W, Putnis CV. 2020. Molecular understanding of humic acid-limited phosphate precipitation and transformation. |
| [36] |
Zhao L, Cao X, Mašek O, Zimmerman A. 2013. Heterogeneity of biochar properties as a function of feedstock sources and production temperatures. |
| [37] |
Kumari S, Dong Y, Safferman SI. 2025. Phosphorus adsorption and recovery from waste streams using biochar: review of mechanisms, modifications, and agricultural applications. |
| [38] |
Yao Y, Gao B, Chen J, Yang L. 2013. Engineered biochar reclaiming phosphate from aqueous solutions: mechanisms and potential application as a slow-release fertilizer. |
| [39] |
Lin Y, Chen Q, Li SFY, Huang K, Wang Q, et al. 2026. Calcium modification in food waste digestate derived granular biochar: unveiling synergistic mechanisms for phosphorus recovery. |
| [40] |
Zhao Z, Li Y, Zhang Y, Lovley DR. 2020. Sparking anaerobic digestion: promoting direct interspecies electron transfer to enhance methane production. |
| [41] |
Shen Y, Yu Y, Zhang Y, Urgun-Demirtas M, Yuan H, et al. 2021. Role of redox-active biochar with distinctive electrochemical properties to promote methane production in anaerobic digestion of waste activated sludge. |
| [42] |
Lü C, Shen Y, Li C, Zhu N, Yuan H. 2020. Redox-active biochar and conductive graphite stimulate methanogenic metabolism in anaerobic digestion of waste-activated sludge: beyond direct interspecies electron transfer. |
| [43] |
Alam M, Dhillon SK, Ismail S, Dhar BR. 2025. Biochar and granular activated carbon mitigate polystyrene nanoplastics inhibition in dark biohydrogen fermentation of sludge. |
| [44] |
Valentin MT, Luo G, Zhang S, Białowiec A. 2023. Direct interspecies electron transfer mechanisms of a biochar-amended anaerobic digestion: a review. |
| [45] |
Xu W, Wu L, Geng M, Zhou J, Bai S, et al. 2025. Biochar@MIL-88A(Fe) accelerates direct interspecies electron transfer and hydrogen transfer in waste activated sludge anaerobic digestion: exploring electron transfer and biomolecular mechanisms. |
| [46] |
Chen L, Fang W, Chang J, Liang J, Zhang P, et al. 2022. Improvement of direct interspecies electron transfer via adding conductive materials in anaerobic digestion: mechanisms, performances, and challenges. |
| [47] |
Bahrami M, Cruz IA, Silva IM, Ghislain T, Lavoie JM. 2025. Tailoring biochar properties for anaerobic digestion: enhancing performance under high organic loading. |
| [48] |
Deng C, Lin R, Kang X, Wu B, Wall DM, et al. 2021. What physicochemical properties of biochar facilitate interspecies electron transfer in anaerobic digestion: a case study of digestion of whiskey by-products. |
| [49] |
Zhang M, Wang Y. 2020. Effects of Fe-Mn-modified biochar addition on anaerobic digestion of sewage sludge: biomethane production, heavy metal speciation and performance stability. |
| [50] |
Yuan HY, Ding LJ, Zama EF, Liu PP, Hozzein WN, et al. 2018. Biochar modulates methanogenesis through electron syntrophy of microorganisms with ethanol as a substrate. |
| [51] |
Guo K, Chang H, Nie Y, Zhu L, Tan L, et al. 2024. Distinct mechanisms on accelerating electron transfer to facilitate two-stage anaerobic digestion modulated by various microalgae biochar. |
| [52] |
Zhang C, Yang R, Sun M, Zhang S, He M, et al. 2022. Wood waste biochar promoted anaerobic digestion of food waste: focusing on the characteristics of biochar and microbial community analysis. |
| [53] |
Wang G, Li Q, Gao X, Wang XC. 2019. Sawdust-derived biochar much mitigates VFAs accumulation and improves microbial activities to enhance methane production in thermophilic anaerobic digestion. |
| [54] |
Cai Y, Zhu M, Meng X, Zhou JL, Zhang H, et al. 2022. The role of biochar on alleviating ammonia toxicity in anaerobic digestion of nitrogen-rich wastes: a review. |
| [55] |
Abera GB, Trømborg E, Solli L, Walter JM, Wahid R, et al. 2024. Biofilm application for anaerobic digestion: a systematic review and an industrial scale case. |
| [56] |
Zhao X, Xu Y, Yin F, Li Y, Li X, et al. 2024. Co-Fe-N@biochar anode for improvment the electricity generation performance of microbial fuel cell. |
| [57] |
Mittal Y, Srivastava P, Kumar N, Kumar M, Singh SK, et al. 2023. Ultra-fast and low-cost electroactive biochar production for electroactive-constructed wetland applications: a circular concept for plant biomass utilization. |
| [58] |
Zha Z, Zhang Z, Xiang P, Zhu H, Zhou B, et al. 2021. One-step preparation of eggplant-derived hierarchical porous graphitic biochar as efficient oxygen reduction catalyst in microbial fuel cells. |
| [59] |
Corona-Martínez DA, Martínez-Amador SY, Rodríguez-De la Garza JA, Laredo-Alcalá EI, Pérez-Rodríguez P. 2025. Recent advances in scaling up bioelectrochemical systems: a review. |
| [60] |
Dhanda A, Raj R, Sathe SM, Dubey BK, Ghangrekar MM. 2023. Graphene and biochar-based cathode catalysts for microbial fuel cell: performance evaluation, economic comparison, environmental and future perspectives. |
| [61] |
Cheng P, Zhang Y, Li M, Ma H, Xu W, et al. 2024. Carbonaceous anodes and compatible exoelectrogens in high-performance microbial fuel cells: a review. |
| [62] |
Yang W, Chen S. 2020. Biomass-derived carbon for electrode fabrication in microbial fuel cells: a review. |
| [63] |
Zhao S, Wang X, Wang Q, Sumpradit T, Khan A, et al. 2023. Application of biochar in microbial fuel cells: characteristic performances, electron-transfer mechanism, and environmental and economic assessments. |
| [64] |
Prabakar P, Mustafa Mert K, Muruganandam L, Sivagami K. 2024. A comprehensive review on biochar for electrochemical energy storage applications: an emerging sustainable technology. |
| [65] |
Yan J, Zhang M, Chen X, Chen C, Xu X, et al. 2024. Straw-derived macroporous biochar as high-performance anode in microbial fuel cells. |
| [66] |
Wang G, Chen L, Xing Y, Sun C, Fu P, et al. 2023. Biochar establishing syntrophic partnership between exoelectrogens to facilitate extracellular electron transfer. |
| [67] |
Zhang S, Kong Z, Wang H, Yan Q, Vayenas DV, et al. 2022. Enhanced nitrate removal by biochar supported nano zero-valent iron (nZVI) at biocathode in bioelectrochemical system (BES). |
| [68] |
Zhou P, Liu G, Wang H, Yan Q, Wu P. 2021. Electrochemical insight into the activated algal biochar assisted hydrogenotrophic denitrification at biocathode using bioelectrochemical system (BES). |
| [69] |
Lam KL, Solon K, Jia M, Volcke EIP, van der Hoek JP. 2022. Life cycle environmental impacts of wastewater-derived phosphorus products: an agricultural end-user perspective. |
| [70] |
Buss W, Hilber I, Graham MC, Mašek O. 2022. Composition of PAHs in biochar and implications for biochar production. |
| [71] |
Hale SE, Lehmann J, Rutherford D, Zimmerman AR, Bachmann RT, et al. 2012. Quantifying the total and bioavailable polycyclic aromatic hydrocarbons and dioxins in biochars. |
| [72] |
Mayer P, Hilber I, Gouliarmou V, Hale SE, Cornelissen G, et al. 2016. How to determine the environmental exposure of PAHs originating from biochar. |
| [73] |
Yang Y, Wang J, Wang Z, Gao Y, Pignatello JJ. 2021. Abatement of polycyclic aromatic hydrocarbon residues in biochars by thermal oxidation. |
| [74] |
Zhang C, Ji Y, Li C, Zhang Y, Sun S, et al. 2023. The application of biochar for CO2 capture: influence of biochar preparation and CO2 capture reactors. |
| [75] |
Gui X, Xu X, Zhang Z, Hu L, Huang W, et al. 2025. Biochar-amended soil can further sorb atmospheric CO2 for more carbon sequestration. |
| [76] |
Frainetti AJ, Klinghoffer NB. 2024. Engineering biochar-supported nickel catalysts for efficient CO2 methanation. |
| [77] |
Faggiano A, Cicatelli A, Guarino F, Castiglione S, Proto A, et al. 2025. Optimizing CO2 capture: effects of chemical functionalization on woodchip biochar adsorption performance. |
| [78] |
Tian W, Wang Y, Hao J, Guo T, Wang X, et al. 2022. Amine-modified biochar for the efficient adsorption of carbon dioxide in flue gas. |
| [79] |
Wu P, Wang Y, Liu Y. 2024. Recent advances in heteroatom-doped porous carbon for adsorption of gaseous pollutants. |
| [80] |
Li T, An X, Fu D. 2023. Review on nitrogen-doped porous carbon materials for CO2 adsorption and separation: recent advances and outlook. |
| [81] |
Zhang Y, Long S, Duret MT, Bullock LA, Lam P, et al. 2025. Modeling and feasibility assessment of mineral carbonation based on biological pH swing for atmospheric CO2 removal. |
| [82] |
Hu L, Huang R, Zhou L, Qin R, He X, et al. 2023. Effects of magnesium-modified biochar on soil organic carbon mineralization in citrus orchard. |
| [83] |
Roy S, Sreenivasan H, Sarmah AK, Baniasadi H, Bordoloi S. 2025. Recent advances for CO2 mineralization in biochar-amended cementitious composites. |
| [84] |
Jedli H, Almonnef M, Rabhi R, Mbarek M, Abdessalem J, et al. 2024. Activated carbon as an adsorbent for CO2 capture: adsorption, kinetics, and RSM modeling. |
| [85] |
Khosrowshahi MS, Abdol MA, Mashhadimoslem H, Khakpour E, Emrooz HBM, et al. 2022. The role of surface chemistry on CO2 adsorption in biomass-derived porous carbons by experimental results and molecular dynamics simulations. |
| [86] |
Li D, Sun L, He R, Xiao G, Zhu D, et al. 2024. Hierarchically porous MgO/biochar composites for efficient CO2 capture: structure, performance and mechanism. |
| [87] |
Hanif A, Aziz MA, Helal A, Abdelnaby MM, Khan A, et al. 2023. CO2 adsorption on biomass-derived carbons from Albizia procera leaves: effects of synthesis strategies. |
| [88] |
Igalavithana AD, Choi SW, Shang J, Hanif A, Dissanayake PD, et al. 2020. Carbon dioxide capture in biochar produced from pine sawdust and paper mill sludge: effect of porous structure and surface chemistry. |
| [89] |
Xu X, Zheng Y, Gao B, Cao X. 2019. N-doped biochar synthesized by a facile ball-milling method for enhanced sorption of CO2 and reactive red. |
| [90] |
Zhang X, Zhang S, Yang H, Shi T, Chen Y, et al. 2013. Influence of NH3/CO2 modification on the characteristic of biochar and the CO2 capture. |
| [91] |
Manyà JJ, González B, Azuara M, Arner G. 2018. Ultra-microporous adsorbents prepared from vine shoots-derived biochar with high CO2 uptake and CO2/N2 selectivity. |
| [92] |
Guo Y, Tan C, Sun J, Li W, Zhang J, et al. 2020. Biomass ash stabilized MgO adsorbents for CO2 capture application. |
| [93] |
Zhang C, Song W, Ma Q, Xie L, Zhang X, et al. 2016. Enhancement of CO2 capture on biomass-based carbon from black locust by KOH activation and ammonia modification. |
| [94] |
Wang R, Wang P, Yan X, Lang J, Peng C, et al. 2012. Promising porous carbon derived from celtuce leaves with outstanding supercapacitance and CO2 capture performance. |
| [95] |
Chen J, Yang J, Hu G, Hu X, Li Z, et al. 2016. Enhanced CO2 capture capacity of nitrogen-doped biomass-derived porous carbons. |
| [96] |
Coromina HM, Walsh DA, Mokaya R. 2016. Biomass-derived activated carbon with simultaneously enhanced CO2 uptake for both pre and post combustion capture applications. |
| [97] |
Deng S, Wei H, Chen T, Wang B, Huang J, Yu G. 2014. Superior CO2 adsorption on pine nut shell-derived activated carbons and the effective micropores at different temperatures. |
| [98] |
Zhou Y, Sun M, Lin C. 2024. Study on the preparation of CdS/TiO2 corn straw biochar composite materials for photocatalytic reduction of CO2 and collaborative H2 production. |
| [99] |
Wang J, Guo RT, Bi ZX, Chen X, Hu X, et al. 2022. A review on TiO2−x-based materials for photocatalytic CO2 reduction. |
| [100] |
Lu Y, Cai Y, Zhang S, Zhuang L, Hu B, et al. 2022. Application of biochar-based photocatalysts for adsorption-(photo)degradation/reduction of environmental contaminants: mechanism, challenges and perspective. |
| [101] |
Lourenço MAO, Zeng J, Jagdale P, Castellino M, Sacco A, et al. 2021. Biochar/zinc oxide composites as effective catalysts for electrochemical CO2 reduction. |
| [102] |
Yang J, Gao G, Zhu Z, Yu X. 2022. Biochar modified Co–Al LDH for enhancing photocatalytic reduction CO2 performance and mechanism insight. |
| [103] |
Yang P, Su X, Huang S, Zhong J, Li M. 2024. Juncus effuses biochar-assisted preparation of oxygen vacancies-rich BiOCl for photocatalytic degradation of pollutants and CO2 reduction. |
| [104] |
Adegoke KA, Maxakato NW. 2022. Electrochemical CO2 conversion to fuels on metal-free N-doped carbon-based materials: functionalities, mechanistic, and technoeconomic aspects. |
| [105] |
Wang T, Sheng H, Xi J, Zhao Y, Yuan B, et al. 2025. CO2 reduction by borohydride over modified biochar-loaded nickel-copper alloy at ambient temperature and atmospheric pressure. |
| [106] |
Liu W, Chen S, Mei Z, Li L, Li H, et al. 2024. Boron and nitrogen doping modulating the coordination environment of copper in biochar for reformative electrocatalytic CO2 reduction. |
| [107] |
Zhao W, Mei X, Zhang Y, Zhang Z, Chen K, et al. 2025. Electrified dry reforming of methane on Ni-La2O3–loaded activated carbon: a net CO2-negative reaction. |
| [108] |
Wang Z, Lin S, Wang L, Qian J, He M, et al. 2025. Oxygen vacancy engineering for enhancing catalytic performance in CO2 hydrogenation: recent advances and future directions. |
| [109] |
Li X, Wang Y, Zhang G, Sun W, Bai Y, et al. 2019. Influence of Mg-promoted Ni-based catalyst supported on coconut shell carbon for CO2 methanation. |
| [110] |
Xie L, Cai Y, Jiang Y, Shen M, Lam JCH, et al. 2024. Direct low concentration CO2 electroreduction to multicarbon products via rate-determining step tuning. |
| [111] |
Schlagenhauf L, Buerki-Thurnherr T, Kuo YY, Wichser A, Nüesch F, et al. 2015. Carbon nanotubes released from an epoxy-based nanocomposite: quantification and particle toxicity. |
| [112] |
Zhou A, Yu S, Deng S, Mikulčić H, Tan H, et al. 2023. Enrichment characteristics and environmental risk assessment of heavy metals in municipal sludge pyrolysis biochar. |
| [113] |
Dai N, Mitch WA. 2014. Effects of flue gas compositions on nitrosamine and nitramine formation in postcombustion CO2 capture systems. |
| [114] |
Terlouw T, Treyer K, Bauer C, Mazzotti M. 2021. Life cycle assessment of direct air carbon capture and storage with low-carbon energy sources. |
| [115] |
Jiao C, You S, Lei Z, Zan F, Li Q, et al. 2025. Deciphering biochar-driven membrane fouling mitigation mechanisms in high-solids AnMBRs: a multi-perspective analysis using computational fluid dynamics and interface thermodynamics. |
| [116] |
Yang K, Wang D, Yang Y, Pan Y, Wu M, et al. 2025. Cyanobacterial biochar modified ceramic membrane for in situ filtration and peroxymonosulfate activation: focusing on interface adjustment and enhanced anti-fouling. |
| [117] |
Wang K, Ye Q, Shen Y, Wang Y, Hong Q, et al. 2023. Biochar addition in membrane bioreactor enables membrane fouling alleviation and nitrogen removal improvement for low C/N municipal wastewater treatment. |
| [118] |
Yang X, Xia S, Hao L, Tian D, Wang L, et al. 2024. Deciphering the behavior and potential mechanism of biochar at different pyrolysis temperatures to alleviate membrane biofouling. |
| [119] |
Fionah A, Oluk I, Brady L, Byrne DM, Escobar IC. 2024. Performance and environmental assessment of biochar-based membranes synthesized from traditional and eco-friendly solvents. |
| [120] |
He P, Zhang H, Duan H, Shao L, Lü F. 2020. Continuity of biochar-associated biofilm in anaerobic digestion. |
| [121] |
Wang L, Liang L, Li N, Chen G, Guo H, et al. 2025. A mini-review of sludge-derived biochar (SDB) for wastewater treatment: recent advances in 2020–2025. |
| [122] |
Ghaffar A, Zhu X, Chen B. 2018. Biochar composite membrane for high performance pollutant management: fabrication, structural characteristics and synergistic mechanisms. |
| [123] |
Morales N, Mery-Araya C, Guerra P, Poblete R, Chacana-Olivares J, et al. 2024. Mitigation of membrane fouling in membrane bioreactors using granular and powdered activated carbon: an experimental study. |
| [124] |
Shao Y, Zhang X, Tan W, Zhao Y, Li F, et al. 2025. Mixed matrix membrane of Pebax-1657 incorporated with H2O2-modified ball-milled biochar for enhanced CO2 separation. |
| [125] |
Xiao L, Yu C, Liu M, Chen L, Xu H, et al. 2025. Enhancing the catalytic capacity of biochar-supported Cu(0) catalysts to endow PVDF composite membranes with self-cleaning property: performance evaluation and mechanistic study. |
| [126] |
Khalil AKA, Teow YH, Yoshizawa-Fujita M, Sobri Takriff M, Ahmad AL, et al. 2025. Capacitive deionization for sustainable water desalination: advances in electrode materials, mechanistic pathways, and system-level optimization. |
| [127] |
Li P, Feng T, Song Z, Tan Y, Luo W. 2020. Chitin derived biochar for efficient capacitive deionization performance. |
| [128] |
Chu M, Tian W, Zhao J, Zou M, Lu Z, et al. 2022. A comprehensive review of capacitive deionization technology with biochar-based electrodes: biochar-based electrode preparation, deionization mechanism and applications. |
| [129] |
Huo B, Yan L, Li G, Rao P, Li T, et al. 2025. Plasma-modified activated biochar electrode for enhanced capacitive deionization: mechanism insight and performance. |
| [130] |
Lim J, Shin YU, Hong S. 2022. Enhanced capacitive deionization using a biochar-integrated novel flow-electrode. |
| [131] |
Li Y, Zhang W, Zhao L, Ma W, Wang S, et al. 2025. Nitrogen and sulfur co-doped cyanobacteria-derived biochar for efficient capacitive removal of Pb2+ from wastewater. |
| [132] |
Wen P, Lu J, Tian L, Liu S, Tahir N, et al. 2025. Environmental-friendly modification of porous biochar via K2FeO4 as a capacitive deionization electrode material. |
| [133] |
Park J, Lee J, Shim I, Koo JW, Nam SH, et al. 2025. Membrane capacitive deionization by spent coffee grounds electrodes for lithium recovery. |
| [134] |
Kyaw HH, Al-Mashaikhi SM, Myint MTZ, Al-Harthi S, El-Shafey EI, et al. 2021. Activated carbon derived from the date palm leaflets as multifunctional electrodes in capacitive deionization system. |
| [135] |
Yan H, Deng M, Qu K, Li Q, Huan C, et al. 2023. Utilization of peanut shells for the fabrication of high-performance activated carbon electrodes in capacitive deionization. |
| [136] |
Qian M, Xuan XY, Pan LK, Gong SQ. 2019. Porous carbon electrodes from activated wasted coffee grounds for capacitive deionization. |
| [137] |
Hadebe L, Cele Z, Gumbi B. 2022. Properties of porous carbon electrode material derived from biomass of coffee waste grounds for capacitive deionization. |
| [138] |
Wang C, Adhikari S, Li Y, Wen M, Wang Y. 2025. Highly selective zinc ion removal by the synergism of functional groups and defects from N, S co-doped biochar. |
| [139] |
Chang JY, Wang HY, Cuong DV, Hou CH. 2026. Self-N-doped hierarchical porous carbon electrodes derived from shrimp shells for high-performance membrane capacitive deionization. |
| [140] |
Zhang Z, Zhang W, Zhao L, Ma W, Li Y, et al. 2025. Synergistic N–P co-doped in biochar electrodes for enhanced capacitive deionization of norfloxacin: mechanistic insights from experimental and DFT studies. |
| [141] |
Mwalusambo G, Tarus B, Elisadiki J, Son M, Kim HH, et al. 2025. Ammonium removal from water using flow capacitive deionization with MgO-modified biochar derived from orange peels. |
| [142] |
Wang J, Sun L, Zhang S, Zhang Y, Zhang R, et al. 2025. One-step baking soda activation induces N, S-self-doped Ginkgo biloba-derived carbon for efficient chlorine removal. |
| [143] |
Zhao Z, Yan L, Li G, Rao P, Huo B, et al. 2025. Food waste biogas residue-derived composite biochar for effective Cu2+ removal by capacitive deionization. |
| [144] |
Panja E, Alfredy T, Elisadiki J, Jande YAC. 2025. Hermetia illucens pupae casings and biogas slurry activated carbon electrodes for Cd2 + removal from aqueous solutions using capacitive deionization. |
| [145] |
Qi B, Li Y, Li L, Zhao Z. 2025. Enhanced nickel removal by N, S co-doped hierarchical porous biochar in capacitive deionization process: performance and application. |
| [146] |
Kumar S, Aldaqqa NM, Alhseinat E, Shetty D. 2023. Electrode materials for desalination of water via capacitive deionization. |