Research Progress in the Application of Amino Acid Ionic Liquids to Energy Storage and Biomass Resource Utilization

doi:10.19894/j.issn.1000-0518.230278

Chinese Journal of Applied Chemistry ›› 2024, Vol. 41 ›› Issue (3): 391-404.DOI: 10.19894/j.issn.1000-0518.230278

• Review • Previous Articles

Research Progress in the Application of Amino Acid Ionic Liquids to Energy Storage and Biomass Resource Utilization

Yuan-Jie LI¹, Bing-Bing FAN¹, Jun-Li ZHANG²(), Yan-Mei ZHOU¹()

^1.Henan Joint International Research Laboratory of Environmental Pollution Control Materials，College of Chemistry and Molecular Sciences，Henan University，Kaifeng 475004，China
^2.State Key Laboratory of Crop Stress Adaptation and Improvement，School of Life Sciences，Henan University，Kaifeng 475001，China

Received:2023-09-13 Accepted:2024-01-25 Published:2024-03-01 Online:2024-04-09
Contact: Jun-Li ZHANG,Yan-Mei ZHOU
Supported by:
the National Natural Science Foundation of China(21776061)

Abstract

Abstract:

Amino acids， as the fundamental components of proteins， contain both acidic and basic groups （amino and carboxyl groups） in their molecular structure， and amino acid ionic liquids with amino acids as anions or cations can be conveniently formulated. Amino acid ionic liquids with the advantages of high solubility， low melting point， and high thermal stability. These liquids find applications as carbon precursors， solvents， catalysts， and adsorbents in various fields such as energy storage， biomass utilization， and carbon capture. This paper provides an overview of the research progress made in the utilization of amino acid ionic liquids in supercapacitor electrode materials， biomass conversion， and carbon dioxide separation and capture in the past seven years. Specifically， it focuses on the advancements in utilizing amino acid ionic liquids as precursors in supercapacitor carbon electrode materials. Furthermore， it highlights the potential applications and future development prospects of amino acid ionic liquids.

Key words: Amino acids ionic liquids, Supercapacitors, Porous carbon, Biomass resourcing, Carbon dioxide separation and capture

CLC Number:

O646

Yuan-Jie LI, Bing-Bing FAN, Jun-Li ZHANG, Yan-Mei ZHOU. Research Progress in the Application of Amino Acid Ionic Liquids to Energy Storage and Biomass Resource Utilization[J]. Chinese Journal of Applied Chemistry, 2024, 41(3): 391-404.

Figures/Tables 7

Fig.1 Properties and applications of amino acid ionic liquids

Table 1 Cations and anions （［HSO4］－） of 21 AA-PILs.

Group	Cations of AA-PILs
Aromatic amino acids
Hetetocuclic amino acid
Aliphatic amino acid

Fig.2 Carbon yield and specific capacity of the carbon materials obtained from 21 AA-PILs ［44］

Fig.3 （a） SEM of ［Lys］［HSO4］2 precursor carbon material；（b， c） SEM of Lys-K2CO3 （［Lys］［HSO4］2 carbon material activated by K2CO3；（d-f） N， O and S heteroatom distributions of Lys-K2CO3［44］；（g） SEM of ［HSO4］ precursor carbon material；（h， i）SEM of Asn-5-NaHCO3 （Asn carbon material modulated with NaHCO3 by the addition of sodium dodecyl sulfate at a mass traction of 5%）；（j-l） N， O and S heteroatom distribution of Asn-5-NaHCO3［50］

Fig.4 （a） Schematic of the synthesis of L-lysine-assisted cubic nitrogen-doped ordered mesoporous carbon material （ArRF-700）；（b， c） SEM images of ArRF-700 at different magnifications［41］；（d， e） HR-SEM electron microscopy images of CIL（Tyr）-C；（f） HR-TEM electron microscopy images of CIL（Tyr）-C［63］

Table 2 Application of AA-ILs in catalytic conversion of biomass

Entry	Catalyst	Substrate	Reaction dosage			Product	Yield
Entry	Catalyst	Substrate	Solvent	Temperature/℃	Time	Product	Yield
1	［Cho］［Pro］^［74］	glucose	H₂O	80	30 min	Fructose	37.6%
2	［Lys］［HSO₄］₂^［75］	glucose	［Bmim］［Cl］	130	1.5 h	Total reducing sugars	67.1%
3	TyrPTA-Ag^［76］	cellulose	H₂O	140	1.5 h	Total reducing sugars	71.3%
4	Tyrosine oxalate^［77］	wheat straw	H₂O	90	3 h	Total reducing sugars	86.3%
5	［TBA］［Arg］^［78］	sunflower oil	Methanol n（methanol）∶n（oil）=9∶1	90	15 min	Biodiesel	98.8%
6	［N₂₂₂₂］［Arg］^［79］	soybean oil	Methanol n（methanol）∶n（oil）=10∶1	100	60 min	Biodiesel	98.4%
7	［Cly］［Cl］^［80］	rice straw	H₂O	37	40 d	CH₄	115.56 mg/g

Fig.5 （a） AA-PILs catalyzes hydrolysis of cellulose to produce total reducing sugar［75］；（b） TyrPTA-Ag catalyzes hydrolysis of cellulose to produce total reducing sugar［76］

References 98

1	OSSOWICZ P， KLEBEKO J， ROMAN B， et al. The relationship between the structure and properties of amino acid ionic liquids［J］. Molecules， 2019， 24（18）： 3252-3277.
2	史会兵，彭黔荣，杨敏，等. 氨基酸离子液体应用研究进展［J］. 化工新型材料， 2013， 41（7）： 161-163.
	SHI H B， PENG Q R， YANG M， et al. Recent application of amino acids ionic liquid［J］. New Chem Mater， 2013， 41（7）： 161-163.
3	REZAEIAN M， IZADYAR M， HOUSAINDOKHT M R. Thermal decomposition of amino acid ionic liquids： mechanism insight［J］. J Mol Liq， 2022， 349： 118486.
4	KIRCHHECKER S， ESPOSITO D. Amino acid based ionic liquids： a green and sustainable perspective［J］. Curr Opin Green Sustainable Chem， 2016， 2： 28-33.
5	杜一萌，刘明星，杨艺，等. 新型氨基酸型离子液体的制备及性能研究［J］. 当代化工， 2022， 51（4）： 795-799.
	DU Y M， LIU M X， YANG Y， et al. Study on the preparation and performance of a new type of amino acid ionicliquid［J］. Contemp Chem Ind， 2022， 51（4）： 795-799.
6	HE L， QIN S， CHANG T， et al. Biodiesel synthesis from the esterification of free fatty acids and alcohol catalyzed by long-chain Brønsted acid ionic liquid［J］. Catal Sci Technol， 2013， 3（4）： 1102-1107.
7	LI X， CHEN K， GUO R， et al. Ionic liquids functionalized MOFs for adsorption［J］. Chem Rev， 2023， 123（16）： 10432-10467.
8	HU Y， XING Y， YUE H， et al. Ionic liquids revolutionizing biomedicine： recent advances and emerging opportunities［J］. Chem Soc Rev， 2023， 52（20）： 7262-7293.
9	AHMAD M G， CHANDA K. Ionic liquid coordinated metal-catalyzed organic transformations： a comprehensive review［J］. Coord Chem Rev， 2022， 472： 214769.
10	JORDAN A， GATHERGOOD N. Biodegradation of ionic liquids--a critical review［J］. Chem Soc Rev， 2015， 44（22）： 8200-8237.
11	MORALES J I， FIGUEROA R， ROJAS M， et al. Dual function of amino acid ionic liquids （Bmim［AA］） on the degradation of the organophosphorus pesticide， paraoxon（R）［J］. Org Biomol Chem， 2018， 16（40）： 7446-7453.
12	FAREGHI-ALAMDARI R， MOUSAVI NODOUSHAN S A， ZEKRI N. Design， synthesis and characterization of new energetic phthalate plasticizers based on imidazolium ionic liquids［J］. J Chem Sci， 2021， 133： 86.
13	WASSERSCHEID P， BOSMANN A， BOLM C. Synthesis and properties of ionic liquids derived from the 'chiral pool'［J］. Chem Commun， 2002（3）： 200-201.
14	OHNO H， FUKUMOTO K， YOSHIZAWA M. Room temperature ionic liquids from 20 natural amino acids［J］. J Am Chem Soc， 2005， 127： 2398-2399.
15	TAO G H， HE L， LIU W S， et al. Preparation， characterization and application of amino acid-based green ionic liquids［J］. Green Chem， 2006， 8（7）： 639-646.
16	DHATTARWAL H S， KASHYAP H K. Unique and generic structural features of cholinium amino acid-based biocompatible ionic liquids［J］. Phys Chem Chem Phys， 2021， 23（17）： 10662-10669.
17	GHANTA K P， MONDAL S， HAJARI T， et al. Impact of an ionic liquid on amino acid side chains： a perspective from molecular simulation studies［J］. J Chem Inf Model， 2023， 63（3）： 959-972.
18	GURKAN B E， FUENTE J C D L， MINDRUP E M， et al. Equimolar CO₂absorption by anion-functionalized ionic liquids［J］. J Am Chem Soc， 2010， 132： 2116-2117.
19	LIU Q， WU K， TANG F， et al. Amino acid ionic liquids as chiral ligands in ligand-exchange chiral separations［J］. Chem Eur J， 2009， 15（38）： 9889-9896.
20	OHNO H， FUKUMOTO K. Amino acid ionic liquids［J］. Acc Chem Res， 2007， 40（11）： 1122-1129.
21	WANG Y， YANG G， WANG G， et al. Superlithiation performance of pyridinium polymerized ionic liquids with fast Li⁺ diffusion kinetics as anode materials for lithium-ion battery［J］. Small， 2023， 19（39）： 2302811.
22	LIU Q， HSU C W， DZWINIEL T L， et al. A fluorine-substituted pyrrolidinium-based ionic liquid for high-voltage Li-ion batteries［J］. Chem Commun， 2020， 56（53）： 7317-7320.
23	BACH-TOLEDO L， HRYNIEWICZ B M， MARCHESI L F， et al. Conducting polymers and composites nanowires for energy devices： a brief review［J］. Mater Sci Energy Technol， 2020， 3： 78-90.
24	CHEN X， PAUL R， DAI L. Carbon-based supercapacitors for efficient energy storage［J］. Natl Sci Rev， 2017， 4（3）： 453-489.
25	SU H， XIONG T， TAN Q， et al. Asymmetric pseudocapacitors based on interfacial engineering of vanadium nitride hybrids［J］. Nanomaterials， 2020， 10（6）： 1141-1157.
26	LI H， DU T， WANG Q， et al. A new synthesis of O/N-doped porous carbon material for supercapacitors［J］. J Energy Storage， 2023， 66： 107397-107408.
27	MUDASSIR M A， KOUSAR S， EHSAN M， et al. Emulsion-derived porous carbon-based materials for energy and environmental applications［J］. Renewable Sustainable Energy Rev， 2023， 185： 113594.
28	EFTEKHARI A. Supercapacitors utilising ionic liquids［J］. Energy Storage Mater， 2017， 9： 47-69.
29	QIU B， PAN C， QIAN W， et al. Nitrogen-doped mesoporous carbons originated from ionic liquids as electrode materials for supercapacitors［J］. J Mater Chem A， 2013， 1（21）： 6373-6378.
30	WANG H， LIU X， ZHANG B， et al. Highly compressible supercapacitor based on carbon nanotubes-reinforced sponge electrode［J］. J Alloys Compd， 2019， 786： 995-1004.
31	VELASCO A， RYU Y K， BOSCÁ A， et al. Recent trends in graphene supercapacitors： from large area to microsupercapacitors［J］. Sustainable Energy Fuels， 2021， 5（5）： 1235-1254.
32	LUO L， LAN Y， ZHANG Q， et al. A review on biomass-derived activated carbon as electrode materials for energy storage supercapacitors［J］. J Energy Storage， 2022， 55： 105839-105861.
33	DHANDAPANI E， THANGARASU S， RAMESH S， et al. Recent development and prospective of carbonaceous material， conducting polymer and their composite electrode materials for supercapacitor-a review［J］. J Energy Storage， 2022， 52： 104937-104972.
34	WANG X， YANG C， LI J， et al. Insights of heteroatoms doping-enhanced bifunctionalities on carbon based energy storage and conversion［J］. Adv Funct Mater， 2020， 31（11）： 2009109-2009119.
35	YU S， YE Y， YANG M， et al. Ammonium folate-reinforced self-assembly of gelatin into N/B/O-enriched hierarchical porous carbons with loosely layered structure for anti-freezing flexible supercapacitors［J］. Small， 2023， 20（8）： 202306267.
36	GUO G， JI C， MI H， et al. Zincophilic anionic hydrogel electrolyte with interfacial specific adsorption of solvation structures for durable zinc ion hybrid supercapacitors［J］. Adv Funct Mater， 2023， 34（2）： 2308405.
37	EFTEKHARI A， FAN Z. Ordered mesoporous carbon and its applications for electrochemical energy storage and conversion［J］. Mater Chem Front， 2017， 1（6）： 1001-1027.
38	RAHMAN M M， ARA M G， ALIM M A， et al. Mesoporous carbon： a versatile material for scientific applications［J］. Int J Mol Sci， 2021， 22（9）： 4498-4519.
39	BAE W G， KIM H N， KIM D， et al. 25th anniversary article： scalable multiscale patterned structures inspired by nature： the role of hierarchy［J］. Adv Mater， 2014， 26（5）： 675-700.
40	WU M， LI W， LI S， et al. Capacitive performance of amino acid ionic liquid electrolyte-based supercapacitors by molecular dynamics simulation［J］. RSC Adv， 2017， 7（46）： 28945-28950.
41	LIU D， ZENG C， QU D， et al. Highly efficient synthesis of ordered nitrogen-doped mesoporous carbons with tunable properties and its application in high performance supercapacitors［J］. J Power Sources， 2016， 321： 143-154.
42	RAMAKRISHNAN P， SHANMUGAM S. Nitrogen-doped carbon nanofoam derived from amino acid chelate complex for supercapacitor applications［J］. J Power Sources， 2016， 316： 60-71.
43	YANG S J， ROTHE R， KIRCHHECKER S， et al. A sustainable synthesis alternative for IL-derived N-doped carbons： bio-based-imidazolium compounds［J］. Carbon， 2015， 94： 641-645.
44	ZHOU H， ZHOU Y， LI L， et al. Amino acid protic ionic liquids： multifunctional carbon precursor for N/S codoped hierarchically porous carbon materials toward supercapacitive energy storage［J］. ACS Sustainable Chem Eng， 2019， 7（10）： 9281-9290.
45	ZHANG S， MIRAN M S， IKOMA A， et al. Protic ionic liquids and salts as versatile carbon precursors［J］. J Am Chem Soc， 2014， 136（5）： 1690-1693.
46	ZHANG S， DOKKO K， WATANABE M. Direct synthesis of nitrogen-doped carbon materials from protic ionic liquids and protic salts： structural and physicochemical correlations between precursor and carbon［J］. Chem Mater， 2014， 26（9）： 2915-2926.
47	SUN L， ZHOU H， LI L， et al. Double soft-template synthesis of nitrogen/sulfur-codoped hierarchically porous carbon materials derived from protic ionic liquid for supercapacitor［J］. ACS Appl Mater Interfaces， 2017， 9（31）： 26088-26095.
48	SUN L， YAO Y， ZHOU Y， et al. Solvent-free synthesis of N/S-codoped hierarchically porous carbon materials from protic ionic liquids for temperature-resistant， flexible supercapacitors［J］. ACS Sustainable Chem Eng， 2018， 6（10）： 13494-13503.
49	ZHANG S， MANDAI T， UENO K， et al. Hydrogen-bonding supramolecular protic salt as an “all-in-one” precursor for nitrogen-doped mesoporous carbons for CO₂ adsorption［J］. Nano Energy， 2015， 13： 376-386.
50	ZHOU H， ZHOU Y， WU S， et al. Synthesis of N/S co-doped porous carbon microspheres based on amino acid protic salt for supercapacitor［J］. J Alloys Compd， 2020， 829： 154549-154558.
51	ZHOU H， WU S， WANG H， et al. The preparation of porous carbon materials derived from bio-protic ionic liquid with application in flexible solid-state supercapacitors［J］. J Hazard Mater， 2021， 402： 124023.
52	WU S， FENG C， FAN B， et al. N/O/P co-doped hierarchical porous graphitic carbon materials for high-rate supercapacitors［J］. J Alloys Compd， 2022， 899： 163282.
53	WANG H， ZHOU H， WU S， et al. Facile synthesis of N/B co-doped hierarchically porous carbon materials based on threonine protic ionic liquids for supercapacitor［J］. Electrochim Acta， 2021， 380： 138230.
54	WU S， ZHOU H， ZHOU Y， et al. Keratin-derived heteroatoms-doped hierarchical porous carbon materials for all-solid flexible supercapacitors［J］. J Alloys Compd， 2021， 859： 157814.
55	SHINDE P A， ABBAS Q， CHODANKAR N R， et al. Strengths， weaknesses， opportunities， and threats （SWOT） analysis of supercapacitors： a review［J］. J Energy Chem， 2023， 79： 611-638.
56	HUANG J， XIE Y， YOU Y， et al. Rational design of electrode materials for advanced supercapacitors： from lab research to commercialization［J］. Adv Funct Mater， 2023， 33（14）： 2213095.
57	KÖTZ R， CARLEN M. Principles and applications of electrochemical capacitors［J］. Electrochim Acta， 2000， 45（15）： 2483-2498.
58	ZHANG S， KWON H M， LI Z， et al. Nitrogen-doped inverse opal carbons derived from an ionic liquid precursor for the oxygen reduction reaction［J］. ChemElectroChem， 2015， 2（8）： 1080-1085.
59	WANG T， WANG H. Research progress on porous carbon materials［J］. Sci Sin Chim， 2019， 49（5）： 729-740.
60	BING X， WEI Y， WANG M， et al. Template-free synthesis of nitrogen-doped hierarchical porous carbons for CO₂ adsorption and supercapacitor electrodes［J］. J Colloid Interface Sci， 2017， 488： 207-217.
61	KANG W， LIN B， HUANG G， et al. Nitrogen and oxygen co-doped porous carbon for high performance supercapacitors［J］. J Mater Sci： Mater Electron， 2017， 29（4）： 3340-3347.
62	LIU F， NIU J， CHUAN X， et al. Nitrogen and sulfur co-doping carbon in different dimensions as electrode for supercapacitor applications［J］. J Alloys Compd， 2023， 947： 169654.
63	ALONI S S， PEROVIC M， WEITMAN M， et al. Amino acid-based ionic liquids as precursors for the synthesis of chiral nanoporous carbons［J］. Nanoscale Adv， 2019， 1（12）： 4981-4988.
64	胡素琴，张晓东，许敏，等. 离子液体在生物质利用方面的应用［J］. 化学进展， 2011， 23（4）： 731-738.
	HU S Q， ZHANG X D， XU M， et al. Application of ionic liquids in biomass utilization［J］. Chem Ind Eng Prog， 2011， 23（4）： 731-738.
65	胡新月，谷芳，邹明，等. 玉米秸秆纤维素的研究进展［J］. 山东化工， 2021， 50（12）： 71-73.
	HU X Y， GU F， ZOU M， et al. Research progress of corn straw cellulose［J］. Shandong Chem Ind， 2021， 50（12）： 71-73.
66	KUMAR K， SINGH E， SHRIVASTAVA S. Microbial xylitol production［J］. Appl Microbiol Biotechnol， 2022， 106（3）： 971-979.
67	OLESZEK M， KOWALSKA I， OLESZEK W. Phytochemicals in bioenergy crops［J］. Phytochem Rev， 2019， 18（3）： 893-927.
68	OROZCO-ANGELINO X， ESPINOSA-RAMIÍREZ J， SERNA-SALDÍVAR S O. Extrusion as a tool to enhance the nutritional and bioactive potential of cereal and legume by-products［J］. Food Res Int， 2023， 169： 112889.
69	BARHOUM A， JEEVANANDAM J， RASTOGI A， et al. Plant celluloses， hemicelluloses， lignins， and volatile oils for the synthesis of nanoparticles and nanostructured materials［J］. Nanoscale， 2020， 12（45）： 22845-22890.
70	RATHORE A S， SINGH A. Biomass to fuels and chemicals： a review of enabling processes and technologies［J］. J Chem Technol Biotechnol， 2021， 97（3）： 597-607.
71	王圆圆，韩秀丽，阎振丽，等. 秸秆类生物质预处理技术的研究进展［J］. 河南农业科学， 2022， 51（11）： 1-10.
	WANG Y Y， HAN X L， YAN Z L， et al. Research progress on pretreatment technology of straw biomass［J］. Henan Agr Sci， 2022， 51（11）： 1-10.
72	HE T， HONG C B， JIAO P C， et al. The proton dissociation of bio-protic ionic liquids：［AAE］X amino acid ionic liquids［J］. Molecules， 2020， 26（1）： 62-76.
73	张雄，徐志祥，李雪辉，等. 葡萄糖化学催化异构制备果糖研究进展［J］. 化工进展， 2017， 36（12）： 4575-4585.
	ZHAGN X， XU Z X， LI X H， et al. Chemical isomerization of glucose into fructose［J］. Chem Ind Eng Prog， 2017， 36（12）： 4575-4585.
74	LI X， ZHANG X， LI H， et al. Glucose isomerizes to fructose catalyzed by the eco-friendly and biodegradable ionic liquids［J］. ChemistrySelect， 2019， 4（46）： 13731-13735.
75	屈浩楠. 氨基酸基催化剂在纤维素和葡萄糖转化中的应用研究［D］. 开封：河南大学， 2019.
	QU H N. Application and research of amino acid-based catalysts in cellulose and glucose conversion［D］. Kaifeng： Henan University， 2019.
76	QU H， LIU B， GAO G， et al. Metal-organic framework containing Brønsted acidity and Lewis acidity for efficient conversion glucose to levulinic acid［J］. Fuel Process Technol， 2019， 193： 1-6.
77	柴春月，田龙. 草酸酪氨酸离子液体水解小麦秸秆制备还原糖的研究［J］. 太阳能学报， 2019， 40（6）： 1672-1676.
	CHAI C Y， TIAN L. Preparation of reducing sugar from wheat straw catalyzed by oxalic acid tyrosine based ionic liquids［J］. Acta Energiate Solaris Sin， 2019， 40（6）： 1672-1676.
78	LI J， GUO Z. Structure evolution of synthetic amino acids-derived basic ionic liquids for catalytic production of biodiesel［J］. ACS Sustainable Chem Eng， 2016， 5（1）： 1237-1247.
79	WANG X， YANG K， CAI R， et al. Optimization and kinetics of biodiesel production from soybean oil using new tetraethylammonium ionic liquids with amino acid-based anions as catalysts［J］. Fuel， 2022， 324： 124510.
80	DENG Y， LIU M， FANG T， et al. Enhancement of anaerobic digestion of rice straw by amino acid-derived ionic liquid［J］. Bioresour Technol， 2023， 380： 129076.
81	MA H， BEADHAM I， RUAN W， et al. Enhancing rice straw compost with an amino acid-derived ionic liquid as additive［J］. Bioresour Technol， 2022， 345： 126387.
82	刘飞，吴蔚闳，卢运祥，等. 氨基酸离子液体的理论研究：结构、分子间相互作用及碱性［J］. 华东理工大学学报（自然科学版）， 2016， 42（5）： 587-593， 652.
	LIU F， WU W H， LU Y X， et al. Theoretical study of amino acid-based ionic liquids ：structure， intermileculatr interactions and basicity［J］. J East China Univ Sci Technol （Nat Sci Ed）， 2016， 42（5）： 587-593， 652.
83	MUHAMMAD N， MAN Z， BUSTAM M A， et al. Dissolution and delignification of bamboo biomass using amino acid-based ionic liquid［J］. Appl Biochem Biotechnol， 2011， 165（3/4）： 998-1009.
84	ZHAO Z， YANG Y， ABDELTAWAB A A， et al. Cholinium amino acids-glycerol mixtures： new class of solvents for pretreating wheat straw to facilitate enzymatic hydrolysis［J］. Bioresour Technol， 2017， 245（Pt A）： 625-632.
85	BRUNNER M， LI H， ZHANG Z， et al. Pinewood pyrolysis occurs at lower temperatures following treatment with choline-amino acid ionic liquids［J］. Fuel， 2019， 236： 306-312.
86	BLANCHARD L A， HANCU D， BECKMAN E J， et al. Green processing using ionic liquids and CO₂［J］. Nature， 1999， 399： 28-29.
87	HUANG Y， CUI G， ZHAO Y， et al. Preorganization and cooperation for highly efficient and reversible capture of low-concentration CO₂ by ionic liquids［J］. Angew Chem Int Ed， 2017， 56（43）： 13293-13297.
88	邱悦，花儿. 新型酰基氨基酸类质子化离子液体的合成及其吸收CO₂的研究［J］. 石河子大学学报（自然科学版）， 2022， 40（4）： 413-420.
	QIU Y， HUA E. Syntheses and CO₂ absorption of novel type acylamino acid protic ionic liquids［J］. J Shihezi Univ （Nat Sci Ed）， 2022， 40（4）： 413-420.
89	QU Y， CHEN Y， YE Y， et al. Supercritical CO₂ assisted synthesis of SBA-15 supported amino acid ionic liquid for CO₂ cycloaddition under cocatalyst/metal/solvent-free conditions［J］. J CO₂ Util， 2022， 66： 102294.
90	夏裴文，丁保宏，张鹏军，等. 氨基酸离子液体的制备及对二氧化碳的吸收［J］. 精细石油化工， 2019， 36（4）： 74-78.
	XIA P W， DING B H， ZHANG P J， et al. Proparation of amino acid liqudi and its absorption of carbon dioxide‍［J］. Speciality Petrochem， 2019， 36（4）： 74-78.
91	MOAZEZBARABADI A， WEI D， JUNGE H， et al. Improved CO₂ capture and catalytic hydrogenation using amino acid based ionic liquids［J］. ChemSusChem， 2022， 15（23）： e202201502.
92	NOORANI N， MEHRDAD A. Evaluating biocompatible amino acid-based poly（ionic liquid）s for CO₂ absorption［J］. J Polym Environ， 2023， 31： 3740-3753.
93	高明，孙丽伟，唐韶坤. 氨基酸功能化离子液体聚合物用于高效CO₂吸附［J］. 高校化学工程学报， 2021， 35（1）： 164-171.
	GAO M， SUN L W， TANG S K. Preparation of an amino acid-functionalized polymeric ionic liquid for efficient CO₂ adsorption［J］. J Chem Eng Chin Univ， 2021， 35（1）： 164-171.
94	ZHANG S， ZHANG X， ZHENG S， et al. Research progress of CO₂ capture and separation by functionalized ionic liquids and materials［J］. Acta Chim Sin， 2023， 81（6）： 627-645.
95	曾少娟，孙雪琦，白银鸽，等. CO₂捕集分离的功能离子液体及材料研究进展［J］. 化学学报， 2023（81）： 1-22.
	ZENG S J， SUN X Q， BAI Y G， et al. Research progress of CO₂ capture and separation by functionalized ionic liquids and materials［J］. CIESC J， 2023（81）： 1-22.
96	杨菲，刘苗苗，陆诗建，等. 适用于烟气CO₂捕集的相变吸收剂研究进展［J］. 低碳化学与化工， 2023， 48（2）： 113-120.
	YANG F， LIU M M， LU S J， et al. Research progress of phase change absorbents for CO₂ capture in flue gas［J］. Low-Carbon Chem Chem Eng， 2023， 48（2）： 113-120.
97	CLAVER C， YEAMIN M B， REGUERO M， et al. Recent advances in the use of catalysts based on natural products for the conversion of CO₂ into cyclic carbonates［J］. Green Chem， 2020， 22（22）： 7665-7706.
98	CHAI S Y W， NGU L H， HOW B S. Review of carbon capture absorbents for CO₂ utilization［J］.Greenhouse Gases： Sci Technol， 2022， 12（3）： 394-427.

[1]	Ding ZHANG, Wei-Wei YANG, Song-Song MIAO, Yi SU. Au Nanoparticles Confined in N-Doped Porous Carbon for Detection of Chlorine Dioxide in Liquid Phase [J]. Chinese Journal of Applied Chemistry, 2023, 40(11): 1572-1580.
[2]	LI Gong, JIN Long-Yi, YAO Peng-Fei, LIU Cong, XU Wei-Lin. Controllability Design of High Performance Oxygen Reduction Catalysts Supported by Platinum Nanoparticles Loaded on Mesoporous Carbon [J]. Chinese Journal of Applied Chemistry, 2021, 38(12): 1639-1646.
[3]	LI Lin, REN Huimin, WEI Bohui, LI Jun, WANG Jie, LI Hui, YAO Chenzhong. V-N Co-doped Mesoporous Carbon Nanomaterials as Catalysts for Artificial N₂ Reduction [J]. Chinese Journal of Applied Chemistry, 2020, 37(8): 930-938.
[4]	XU Xiaolong, WANG Suijun, JIN Yi, WANG Hao. Mesoporous Carbon Matrix Suppressing Dendritic Growth of Lithium Battery Anode [J]. Chinese Journal of Applied Chemistry, 2020, 37(6): 703-708.
[5]	FAN Zhe,ZHANG Shengsheng,TANG Jiahao,FAN Ping. Structure, Preparation and Application of Graded Nanomaterials [J]. Chinese Journal of Applied Chemistry, 2020, 37(5): 489-501.
[6]	AN Lulu, MI Jie. Synthesis of Nickel Cobalt Hydroxide and Its Electrochemical Properties [J]. Chinese Journal of Applied Chemistry, 2020, 37(5): 579-586.
[7]	XIE Yaqiao, ZHAO Jiaxin, LI Jielan, XU Zidi, QU Jiangying, TIAN Yunqi, GAO Feng. Synthesis of Sodium Chloride Induced Lignin-Based Porous Carbon and Their Supercapacitor Performances [J]. Chinese Journal of Applied Chemistry, 2019, 36(4): 482-488.
[8]	DENG Junfei,DU Weimin,WANG Mengyao,WEI Qinghe. Synthesis and the Electrochemical Energy Storage of Porous Biomass Carbon from Corn Stalk [J]. Chinese Journal of Applied Chemistry, 2019, 36(11): 1323-1332.
[9]	FU Wanchen, LI Qian, FENG Dongdong, WANG Wei. Synthesis and Electrochemical Properties of NiO Nanomaterials with Different Morphologies [J]. Chinese Journal of Applied Chemistry, 2019, 36(1): 75-82.
[10]	CHEN Kunfeng,XUE Dongfeng. Colloidal State of Active Cation and Its Limit for Electrochemical Energy Storage [J]. Chinese Journal of Applied Chemistry, 2018, 35(9): 1067-1075.
[11]	XU Xiaolong, HAO Zhendong, LI Haoqiang, WANG Hao, LIU Jingbing, YAN Hui. Modification of LiFePO₄ Based on Zeolite Imidazolate Framework-8 [J]. Chinese Journal of Applied Chemistry, 2018, 35(8): 939-945.
[12]	Shuang LENG, Tao WANG, Min YANG, Yanzhi ZHAO, Wei LU, Ruoming WANG, Guoying SUN. Preparation and Electrochemical Performance of Nitrogen Doped Carbon Materials Based on Polydopamine [J]. Chinese Journal of Applied Chemistry, 2018, 35(4): 477-483.
[13]	WU Weiming, ZHANG Changsong, HOU Shaogang, YANG Shubin. Synthesis of MXenes and MXenes-containing Composites for Energy Storage and Conversions [J]. Chinese Journal of Applied Chemistry, 2018, 35(3): 317-327.
[14]	YE Shaofeng, LIU Wenxian, SHA Dongyong, XU Xilian, SHI Wenhui, CAO Xiehong. Two-Dimensional Materials Assembled Bubble Foam-like Hybrid for Supercapacitor Applications [J]. Chinese Journal of Applied Chemistry, 2018, 35(3): 351-355.
[15]	ZHU Zhaoqiang,DU Weimin,GUO Wei,ZHU Wenjuan. Research Progress of Preparation and Application of Transition Metal Ternary Compounds in Supercapacitors [J]. Chinese Journal of Applied Chemistry, 2016, 33(3): 267-276.

Research Progress in the Application of Amino Acid Ionic Liquids to Energy Storage and Biomass Resource Utilization

RichHTML

PDF

Knowledge

Abstract

Cite this article

share this article

Figures/Tables 7

References 98

Related Articles 15

Recommended Articles

Metrics

Comments