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Целью данной работы является исследование электрохимических характеристик пористого углерода в ионной жидкости [EMIM][BF4].
В настоящее время для ее достижения была выделены следующие задачи:
● Изучить научно-техническую литературу;
● Определить перспективное направление исследований;
● Собрать электрохимические ячейки;
● Пропитать ячейки ионной жидкостью, используя 3 методики;
● Проанализировать полученные данные.
Введение 2
1. Литературный обзор 4
1.1. Устройство суперконденсатора 4
1.2. Сравнительный анализ 5
1.3. Области применения суперконденсаторов 6
1.4. Ионные жидкости в устройствах суперконденсаторов 7
1.5. Пористые углеродные материалы в суперконденсаторах 8
2. Экспериментальная часть 14
2.1. Используемые материалы 14
2.2. Изготовление образцов 14
2.3. Электрохимические измерения 15
3. Результаты 15
Заключение 18
Литература 19
Дата изготовления: июнь 2024 года.
Предмет: Неорганическая химия.
Учебное заведение: Университет «Дубна».
Оригинальность по Антиплагиат.ру составила 50%.
Работа была успешно сдана - заказчик претензий не имел.
1. Мутаев Нуритдин Халидович ИОНИСТОРЫ (СУПЕРКОНДЕНСАТОРЫ): ОСНОВЫ И ПРИМЕНЕНИЕ // StudNet. 2021. №7
2. Сосновский П. В., Дмитров С. А. Устройство и применение суперконденсаторов. – 2018.
3. F.Belhachemi, S. Rael, B. Davat, ―A physical based model of power electric double-layer supercapacitors‖, Industrial Application Conference, Vol. 5, pp. 3069 - 3076, 2000.
4. Kismat, Dr Jyoti Gahlawat. "A Comparative Analysis of Supercapacitors and Batteries as Energy Storage Devices." International Journal of Multidisciplinary Innovation and Research Methodology, ISSN: 2960-2068 2, no. 2 (2023): 14-20.
5. Almusawi M. et al. Comparative Analysis of Supercapacitors vs. Batteries //E3S Web of Conferences. – EDP Sciences, 2024. – Т. 591. – С. 01010.
6. N. Omar, J. Ronsmans, Y. Firouz, M. A. Monem, A. Samba, H. Gualous, O. Hegazy, J. Smekens, T. Coosemans, P. Van den Bossche, and J. Van Mierlo, “Lithium-Ion Capacitor - Advanced Technology for Rechargeable Energy Storage Systems,” in EVS27, 2013
7. H. Gualous, G. Alcicek, Y. Diab, A. Hammar, P. Venet, and K. Adams, “Lithium Ion capacitor characterization and modelling,” in ESCAP’08: Third European Symposium on supercapacitors and applications, 2008
8. Forze VI Racingteam, “Forze VI Racingteam,” https://www.youtube.com/watch?v=9w4Mhc3Gz6M#t=13.
9. Ахмедов А. П., Гиясов С. М. Применение суперконденсаторов в автомобилях //Энергетика и энергосбережение: теория и практика. – 2018. – С. 403.1-403.5.
10. Physical and electrochemical properties of ionic liquids 1-ethyl-3-methylimidazolium tetrafluoroborate, 1-butyl-3-methylimidazolium trifluoromethanesulfonate and 1-butyl-1-methylpyrrolidinium bis(trifluoromethylsulfonyl)imide / Mojtaba Shamsipur, Ali Akbar Miran Beigi, Mohammad Teymouri, Sayed Mahdi Pourmortazavi, Mohsen Irandoust // Journal of Molecular Liquids. - 2010. - V. 157. - P. 43-50.
11. Electrochemical behaviour of ferrocene in the ionic liquid 1-ethyl-3-methylimidazolium tetrafluoroborate, EMIMBF4, at 298K / E. Barrado, R.A.S. Couto, M.B. Quinaz, J.L.F.C. Lima, Y. Castrillejo // Journal of Electroanalytical Chemistry. - 2014. - V. 720-721. - P. 139-146.
12. EMIMBF4 in ternary liquid mixtures of water, dimethyl sulfoxide and acetonitrile as “tri-solvent-in-salt” electrolytes for high-performance supercapacitors operating at -70 °C / Xuejun Lu, José Manuel Vicent-Luna, Sofia Calero, Rafael M. Madero-Castro, María C. Gutiérrez, M. Luisa Ferrer, Francisco del Monte // Energy Storage Materials. - 2021. - V. 40. - P. 368-385.
13. Gupta S. P. et al. Thermally driven high-rate intercalated pseudocapacitance of flower-like architecture of ultrathin few layered δ-MnO2 nanosheets on carbon nano-onions //ACS Applied Energy Materials. – 2020. – Т. 3. – №. 11. – С. 11398-11409.
14. Mohapatra D. et al. Sulfur doping: unique strategy to improve the supercapacitive performance of carbon nano-onions //ACS applied materials & interfaces. – 2019. – Т. 11. – №. 8. – С. 8040-8050.
15. Dhakal G. et al. Redox-additive electrolyte–driven enhancement of the electrochemical energy storage performance of asymmetric Co3O4//carbon nano-onions supercapacitors //Energy. – 2021. – Т. 218. – С. 119436.
16. Gao Y. et al. Chemical activation of carbon nano-onions for high-rate supercapacitor electrodes //Carbon. – 2013. – Т. 51. – С. 52-58.
17. Pech D. et al. Ultrahigh-power micrometre-sized supercapacitors based on onion-like carbon //Nature nanotechnology. – 2010. – Т. 5. – №. 9. – С. 651-654.
18. Anjos D. M. et al. Pseudocapacitance and performance stability of quinone-coated carbon onions //Nano energy. – 2013. – Т. 2. – №. 5. – С. 702-712.
19. Yang Y. et al. Three-dimensional thin film for lithium-ion batteries and supercapacitors //ACS nano. – 2014. – Т. 8. – №. 7. – С. 7279-7287.
20. Zhang W. et al. Nanopores created by carbon onion conductive agent providing enhanced capacitance in supercapacitors //Diamond and Related Materials. – 2019. – Т. 96. – С. 231-236.
21. Van Aken K. L., Beidaghi M., Gogotsi Y. Formulation of ionic‐liquid electrolyte to expand the voltage window of supercapacitors //Angewandte Chemie. – 2015. – Т. 127. – №. 16. – С. 4888-4891.
22. Richey F. W. et al. Ion dynamics in porous carbon electrodes in supercapacitors using in situ infrared spectroelectrochemistry //Journal of the american chemical society. – 2013. – Т. 135. – №. 34. – С. 12818-12826.
23. Huang P. et al. On-chip micro-supercapacitors for operation in a wide temperature range //Electrochemistry communications. – 2013. – Т. 36. – С. 53-56.
24. Zeiger M., Weingarth D., Presser V. Quinone‐Decorated Onion‐Like Carbon/Carbon Fiber Hybrid Electrodes for High‐Rate Supercapacitor Applications //ChemElectroChem. – 2015. – Т. 2. – №. 8. – С. 1117-1127.
25. Bhaumik M. et al. High-performance supercapacitors based on S-doped polyaniline nanotubes decorated with Ni (OH) 2 nanosponge and onion-like carbons derived from used car tyres //Electrochimica Acta. – 2020. – Т. 342. – С. 136111.
26. Martínez-Iniesta A. D. et al. Nitrogen–phosphorus doped graphitic nano onion-like structures: experimental and theoretical studies //RSC advances. – 2021. – Т. 11. – №. 5. – С. 2793-2803.
27. Fleischmann S. et al. Tuning pseudocapacitive and battery-like lithium intercalation in vanadium dioxide/carbon onion hybrids for asymmetric supercapacitor anodes //Journal of Materials Chemistry A. – 2017. – Т. 5. – №. 25. – С. 13039-13051.
28. Li J. et al. Flexible metal-templated fabrication of mesoporous onion-like carbon and Fe 2 O 3@ N-doped carbon foam for electrochemical energy storage //Journal of Materials Chemistry A. – 2018. – Т. 6. – №. 27. – С. 13012-13020.
29. Liu K. et al. Pitch-based porous aerogel composed of carbon onion nanospheres for electric double layer capacitors //Carbon. – 2018. – Т. 137. – С. 304-312.
30. Wang Y. et al. Supercapacitor devices based on graphene materials //The Journal of Physical Chemistry C. – 2009. – Т. 113. – №. 30. – С. 13103-13107
31. Chen J. et al. Pulsed electrochemical fabrication of graphene/polypyrrole composite gel films for high performance and flexible supercapacitors //Electrochimica Acta. – 2020. – Т. 361. – С. 137036.
32. Kong K. et al. The fabrication of bowl-shaped polypyrrole/graphene nanostructural electrodes and its application in all-solid-state supercapacitor devices //Journal of Power Sources. – 2020. – Т. 470. – С. 228452.
33. Li T. et al. Synthesis of graphene/polyaniline copolymer for solid-state supercapacitor //Journal of Electroanalytical Chemistry. – 2020. – Т. 860. – С. 113908.
34. Lai L. et al. Preparation of supercapacitor electrodes through selection of graphene surface functionalities //ACS nano. – 2012. – Т. 6. – №. 7. – С. 5941-5951.
35. Wang Q. et al. Covalent modified reduced graphene oxide: facile fabrication and high rate supercapacitor performances //Electrochimica Acta. – 2021. – Т. 369. – С. 137700.
36. Yan J. et al. Fast and reversible surface redox reaction of graphene–MnO2 composites as supercapacitor electrodes //Carbon. – 2010. – Т. 48. – №. 13. – С. 3825-3833.
37. Wu G. et al. High volumetric energy density asymmetric fibrous supercapacitors with coaxial structure based on graphene/MnO2 hybrid fibers //ChemElectroChem. – 2020. – Т. 7. – №. 22. – С. 4641-4648.
38. Kim D. W., Jung S. M., Jung H. Y. Long term thermostable supercapacitor using in-situ SnO2 doped porous graphene aerogel //Journal of Power Sources. – 2020. – Т. 448. – С. 227422.
39. Wen Z. et al. Crumpled nitrogen‐doped graphene nanosheets with ultrahigh pore volume for high‐performance supercapacitor //Advanced materials. – 2012. – Т. 24. – №. 41. – С. 5610.
40. Wang Z. et al. Facile synthesis of graphene sheets intercalated by carbon spheres for high-performance supercapacitor electrodes //Carbon. – 2020. – Т. 167. – С. 11-18.
41. Hao H. et al. Interfacial engineering of reduced graphene oxide for high-performance supercapacitor materials //Journal of Electroanalytical Chemistry. – 2020. – Т. 878. – С. 114679.
42. Bhatnagar A. et al. An overview of the modification methods of activated carbon for its water treatment applications //Chemical Engineering Journal. – 2013. – Т. 219. – С. 499-511.
43. Caturla F., Molina-Sabio M., Rodriguez-Reinoso F. Preparation of activated carbon by chemical activation with ZnCl2 //Carbon. – 1991. – Т. 29. – №. 7. – С. 999-1007.
44. Olivares-Marín M. et al. Preparation of activated carbon from cherry stones by physical activation in air. Influence of the chemical carbonisation with H2SO4 //Journal of analytical and applied pyrolysis. – 2012. – Т. 94. – С. 131-137.
45. Effect of adding ionic liquid 1-ethyl-3-methylimidazolium tetrafluoroborate on the coordination environment of Li+ ions in propylene carbonate, according to data from IR spectroscopy and quantum chemical modeling / A.F. Shestakov, A.V. Yudina, G.Z. Tulibaeva, Y.M. Shul’ga, A.A. Ignatova, O.V. Yarmolenko // Russian Journal of Physical Chemistry A. - 2017. - V. 91. - P. 1444-1450.
46. Cross‐coupled macro‐mesoporous carbon network toward record high energy‐power density supercapacitor at 4 V / Jing Li, Ning Wang, Jiarui Tian, Weizhong Qian, Wei Chu // Advanced Functional Materials. - 2018. - V. 28. - 1806153.
47. Breaking the Limits of Ionic Liquid‐Based Supercapacitors: Mesoporous Carbon Electrodes Functionalized with Manganese Oxide Nanosplotches for Dense, Stable, and Wide‐Temperature Energy Storage / Feili Lai, Jianrui Feng, Runyu Yan, Gui-Chang Wang, Markus Antonietti, Martin Oschatz // Advanced Functional Materials. - 2018. - V. 28. - 1801298.
48. Strong metal oxide-support interactions in carbon/hematite nanohybrids activate novel energy storage modes for ionic liquid-based supercapacitors / Feili Lai, Jianrui Feng, Tobias Heil, Gui-Chang Wang, Peter Adler, Markus Antonietti, Martin Oschatz // Energy Storage Materials. - 2019. - V. 20. - P. 188-195.
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Целью данной работы является исследование электрохимических характеристик пористого углерода в ионной жидкости [EMIM][BF4].
В настоящее время для ее достижения была выделены следующие задачи:
● Изучить научно-техническую литературу;
● Определить перспективное направление исследований;
● Собрать электрохимические ячейки;
● Пропитать ячейки ионной жидкостью, используя 3 методики;
● Проанализировать полученные данные.
Введение 2
1. Литературный обзор 4
1.1. Устройство суперконденсатора 4
1.2. Сравнительный анализ 5
1.3. Области применения суперконденсаторов 6
1.4. Ионные жидкости в устройствах суперконденсаторов 7
1.5. Пористые углеродные материалы в суперконденсаторах 8
2. Экспериментальная часть 14
2.1. Используемые материалы 14
2.2. Изготовление образцов 14
2.3. Электрохимические измерения 15
3. Результаты 15
Заключение 18
Литература 19
Дата изготовления: июнь 2024 года.
Предмет: Неорганическая химия.
Учебное заведение: Университет «Дубна».
Оригинальность по Антиплагиат.ру составила 50%.
Работа была успешно сдана - заказчик претензий не имел.
1. Мутаев Нуритдин Халидович ИОНИСТОРЫ (СУПЕРКОНДЕНСАТОРЫ): ОСНОВЫ И ПРИМЕНЕНИЕ // StudNet. 2021. №7
2. Сосновский П. В., Дмитров С. А. Устройство и применение суперконденсаторов. – 2018.
3. F.Belhachemi, S. Rael, B. Davat, ―A physical based model of power electric double-layer supercapacitors‖, Industrial Application Conference, Vol. 5, pp. 3069 - 3076, 2000.
4. Kismat, Dr Jyoti Gahlawat. "A Comparative Analysis of Supercapacitors and Batteries as Energy Storage Devices." International Journal of Multidisciplinary Innovation and Research Methodology, ISSN: 2960-2068 2, no. 2 (2023): 14-20.
5. Almusawi M. et al. Comparative Analysis of Supercapacitors vs. Batteries //E3S Web of Conferences. – EDP Sciences, 2024. – Т. 591. – С. 01010.
6. N. Omar, J. Ronsmans, Y. Firouz, M. A. Monem, A. Samba, H. Gualous, O. Hegazy, J. Smekens, T. Coosemans, P. Van den Bossche, and J. Van Mierlo, “Lithium-Ion Capacitor - Advanced Technology for Rechargeable Energy Storage Systems,” in EVS27, 2013
7. H. Gualous, G. Alcicek, Y. Diab, A. Hammar, P. Venet, and K. Adams, “Lithium Ion capacitor characterization and modelling,” in ESCAP’08: Third European Symposium on supercapacitors and applications, 2008
8. Forze VI Racingteam, “Forze VI Racingteam,” https://www.youtube.com/watch?v=9w4Mhc3Gz6M#t=13.
9. Ахмедов А. П., Гиясов С. М. Применение суперконденсаторов в автомобилях //Энергетика и энергосбережение: теория и практика. – 2018. – С. 403.1-403.5.
10. Physical and electrochemical properties of ionic liquids 1-ethyl-3-methylimidazolium tetrafluoroborate, 1-butyl-3-methylimidazolium trifluoromethanesulfonate and 1-butyl-1-methylpyrrolidinium bis(trifluoromethylsulfonyl)imide / Mojtaba Shamsipur, Ali Akbar Miran Beigi, Mohammad Teymouri, Sayed Mahdi Pourmortazavi, Mohsen Irandoust // Journal of Molecular Liquids. - 2010. - V. 157. - P. 43-50.
11. Electrochemical behaviour of ferrocene in the ionic liquid 1-ethyl-3-methylimidazolium tetrafluoroborate, EMIMBF4, at 298K / E. Barrado, R.A.S. Couto, M.B. Quinaz, J.L.F.C. Lima, Y. Castrillejo // Journal of Electroanalytical Chemistry. - 2014. - V. 720-721. - P. 139-146.
12. EMIMBF4 in ternary liquid mixtures of water, dimethyl sulfoxide and acetonitrile as “tri-solvent-in-salt” electrolytes for high-performance supercapacitors operating at -70 °C / Xuejun Lu, José Manuel Vicent-Luna, Sofia Calero, Rafael M. Madero-Castro, María C. Gutiérrez, M. Luisa Ferrer, Francisco del Monte // Energy Storage Materials. - 2021. - V. 40. - P. 368-385.
13. Gupta S. P. et al. Thermally driven high-rate intercalated pseudocapacitance of flower-like architecture of ultrathin few layered δ-MnO2 nanosheets on carbon nano-onions //ACS Applied Energy Materials. – 2020. – Т. 3. – №. 11. – С. 11398-11409.
14. Mohapatra D. et al. Sulfur doping: unique strategy to improve the supercapacitive performance of carbon nano-onions //ACS applied materials & interfaces. – 2019. – Т. 11. – №. 8. – С. 8040-8050.
15. Dhakal G. et al. Redox-additive electrolyte–driven enhancement of the electrochemical energy storage performance of asymmetric Co3O4//carbon nano-onions supercapacitors //Energy. – 2021. – Т. 218. – С. 119436.
16. Gao Y. et al. Chemical activation of carbon nano-onions for high-rate supercapacitor electrodes //Carbon. – 2013. – Т. 51. – С. 52-58.
17. Pech D. et al. Ultrahigh-power micrometre-sized supercapacitors based on onion-like carbon //Nature nanotechnology. – 2010. – Т. 5. – №. 9. – С. 651-654.
18. Anjos D. M. et al. Pseudocapacitance and performance stability of quinone-coated carbon onions //Nano energy. – 2013. – Т. 2. – №. 5. – С. 702-712.
19. Yang Y. et al. Three-dimensional thin film for lithium-ion batteries and supercapacitors //ACS nano. – 2014. – Т. 8. – №. 7. – С. 7279-7287.
20. Zhang W. et al. Nanopores created by carbon onion conductive agent providing enhanced capacitance in supercapacitors //Diamond and Related Materials. – 2019. – Т. 96. – С. 231-236.
21. Van Aken K. L., Beidaghi M., Gogotsi Y. Formulation of ionic‐liquid electrolyte to expand the voltage window of supercapacitors //Angewandte Chemie. – 2015. – Т. 127. – №. 16. – С. 4888-4891.
22. Richey F. W. et al. Ion dynamics in porous carbon electrodes in supercapacitors using in situ infrared spectroelectrochemistry //Journal of the american chemical society. – 2013. – Т. 135. – №. 34. – С. 12818-12826.
23. Huang P. et al. On-chip micro-supercapacitors for operation in a wide temperature range //Electrochemistry communications. – 2013. – Т. 36. – С. 53-56.
24. Zeiger M., Weingarth D., Presser V. Quinone‐Decorated Onion‐Like Carbon/Carbon Fiber Hybrid Electrodes for High‐Rate Supercapacitor Applications //ChemElectroChem. – 2015. – Т. 2. – №. 8. – С. 1117-1127.
25. Bhaumik M. et al. High-performance supercapacitors based on S-doped polyaniline nanotubes decorated with Ni (OH) 2 nanosponge and onion-like carbons derived from used car tyres //Electrochimica Acta. – 2020. – Т. 342. – С. 136111.
26. Martínez-Iniesta A. D. et al. Nitrogen–phosphorus doped graphitic nano onion-like structures: experimental and theoretical studies //RSC advances. – 2021. – Т. 11. – №. 5. – С. 2793-2803.
27. Fleischmann S. et al. Tuning pseudocapacitive and battery-like lithium intercalation in vanadium dioxide/carbon onion hybrids for asymmetric supercapacitor anodes //Journal of Materials Chemistry A. – 2017. – Т. 5. – №. 25. – С. 13039-13051.
28. Li J. et al. Flexible metal-templated fabrication of mesoporous onion-like carbon and Fe 2 O 3@ N-doped carbon foam for electrochemical energy storage //Journal of Materials Chemistry A. – 2018. – Т. 6. – №. 27. – С. 13012-13020.
29. Liu K. et al. Pitch-based porous aerogel composed of carbon onion nanospheres for electric double layer capacitors //Carbon. – 2018. – Т. 137. – С. 304-312.
30. Wang Y. et al. Supercapacitor devices based on graphene materials //The Journal of Physical Chemistry C. – 2009. – Т. 113. – №. 30. – С. 13103-13107
31. Chen J. et al. Pulsed electrochemical fabrication of graphene/polypyrrole composite gel films for high performance and flexible supercapacitors //Electrochimica Acta. – 2020. – Т. 361. – С. 137036.
32. Kong K. et al. The fabrication of bowl-shaped polypyrrole/graphene nanostructural electrodes and its application in all-solid-state supercapacitor devices //Journal of Power Sources. – 2020. – Т. 470. – С. 228452.
33. Li T. et al. Synthesis of graphene/polyaniline copolymer for solid-state supercapacitor //Journal of Electroanalytical Chemistry. – 2020. – Т. 860. – С. 113908.
34. Lai L. et al. Preparation of supercapacitor electrodes through selection of graphene surface functionalities //ACS nano. – 2012. – Т. 6. – №. 7. – С. 5941-5951.
35. Wang Q. et al. Covalent modified reduced graphene oxide: facile fabrication and high rate supercapacitor performances //Electrochimica Acta. – 2021. – Т. 369. – С. 137700.
36. Yan J. et al. Fast and reversible surface redox reaction of graphene–MnO2 composites as supercapacitor electrodes //Carbon. – 2010. – Т. 48. – №. 13. – С. 3825-3833.
37. Wu G. et al. High volumetric energy density asymmetric fibrous supercapacitors with coaxial structure based on graphene/MnO2 hybrid fibers //ChemElectroChem. – 2020. – Т. 7. – №. 22. – С. 4641-4648.
38. Kim D. W., Jung S. M., Jung H. Y. Long term thermostable supercapacitor using in-situ SnO2 doped porous graphene aerogel //Journal of Power Sources. – 2020. – Т. 448. – С. 227422.
39. Wen Z. et al. Crumpled nitrogen‐doped graphene nanosheets with ultrahigh pore volume for high‐performance supercapacitor //Advanced materials. – 2012. – Т. 24. – №. 41. – С. 5610.
40. Wang Z. et al. Facile synthesis of graphene sheets intercalated by carbon spheres for high-performance supercapacitor electrodes //Carbon. – 2020. – Т. 167. – С. 11-18.
41. Hao H. et al. Interfacial engineering of reduced graphene oxide for high-performance supercapacitor materials //Journal of Electroanalytical Chemistry. – 2020. – Т. 878. – С. 114679.
42. Bhatnagar A. et al. An overview of the modification methods of activated carbon for its water treatment applications //Chemical Engineering Journal. – 2013. – Т. 219. – С. 499-511.
43. Caturla F., Molina-Sabio M., Rodriguez-Reinoso F. Preparation of activated carbon by chemical activation with ZnCl2 //Carbon. – 1991. – Т. 29. – №. 7. – С. 999-1007.
44. Olivares-Marín M. et al. Preparation of activated carbon from cherry stones by physical activation in air. Influence of the chemical carbonisation with H2SO4 //Journal of analytical and applied pyrolysis. – 2012. – Т. 94. – С. 131-137.
45. Effect of adding ionic liquid 1-ethyl-3-methylimidazolium tetrafluoroborate on the coordination environment of Li+ ions in propylene carbonate, according to data from IR spectroscopy and quantum chemical modeling / A.F. Shestakov, A.V. Yudina, G.Z. Tulibaeva, Y.M. Shul’ga, A.A. Ignatova, O.V. Yarmolenko // Russian Journal of Physical Chemistry A. - 2017. - V. 91. - P. 1444-1450.
46. Cross‐coupled macro‐mesoporous carbon network toward record high energy‐power density supercapacitor at 4 V / Jing Li, Ning Wang, Jiarui Tian, Weizhong Qian, Wei Chu // Advanced Functional Materials. - 2018. - V. 28. - 1806153.
47. Breaking the Limits of Ionic Liquid‐Based Supercapacitors: Mesoporous Carbon Electrodes Functionalized with Manganese Oxide Nanosplotches for Dense, Stable, and Wide‐Temperature Energy Storage / Feili Lai, Jianrui Feng, Runyu Yan, Gui-Chang Wang, Markus Antonietti, Martin Oschatz // Advanced Functional Materials. - 2018. - V. 28. - 1801298.
48. Strong metal oxide-support interactions in carbon/hematite nanohybrids activate novel energy storage modes for ionic liquid-based supercapacitors / Feili Lai, Jianrui Feng, Tobias Heil, Gui-Chang Wang, Peter Adler, Markus Antonietti, Martin Oschatz // Energy Storage Materials. - 2019. - V. 20. - P. 188-195.
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