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• [1] Martínez-Abad A, Giummarella N, Lawoko M, Vilaplana F. Differences in extractability under subcritical water reveal interconnected hemicellulose and lignin recalcitrance in birch hardwoods. Green Chem. 2018; 20: 2534–2546.
• [2] C Morais AR, Matuchaki MD, Andreaus J, Bogel-Lukasik R. A green and efficient approach to selective conversion of xylose and biomass hemicellulose into furfural in aqueous media using high-pressure CO2 as a sustainable catalyst. Green Chem. 2016; 18: 2985–2994.
• [3] Soleimani M, Tabil LG, Panigrahi S. A kinetic study of xylose recovery from a hemicellulose-rich biomass for xylitol fermentative production. https://doi.org/10.1080/00986445.2018.1478294
• [4] Fernández MA, Rissanen J, Nebreda AP, Xu C, Willför S, García Serna J, Salmi T, Grénman H. Hemicelluloses from stone pine, holm oak, and Norway spruce with subcritical water extraction−comparative study with characterization and kinetics. The Journal of Supercritical Fluids 2018; 133: 647–657.
• [5] Möller M, Schröder U. Hydrothermal production of furfural from xylose and xylan as model compounds for hemicelluloses. The Royal Society of Chemistry 2013; 3: 22253–22260.
• [6] Pavlovic I, Knez Z, Škerget M. SubcriticalWater–a Perspective Reaction Media for Biomass Processing to Chemicals: Study on Cellulose Conversion as a Model for Biomass. Chem. Biochem. Eng. 2013; 27-1: 73–82.
• [7] Chen X, Liu X, Xu F, Bai X. Degradation kinetics of xylose and arabinose in subcritical water in unitary and binary system. Advanced Materials Research 2012; 450-451: 710-714.
• [8] Salimi M, Tavasoli A, Balou S, Hashemi H, Kohansal K. Influence of promoted bimetallic Ni-based catalysts and Micro/Mesopores carbonaceous supports for biomass hydrothermal conversion to H2-rich gas. Applied Catalysis B: Environmental 2018; 239: 383–397.
• [9] Liang X, Fu Y, Chang J. Effective separation, recovery and recycling of deep eutectic solvent after biomass fractionation with membrane-based methodology. Separation and Purification Technology 2019; 210: 409–416.
• [10] Jiang Z, Yuan J, Wang P, Fan X, Xu J, Wang Q, Zhang L. Dissolution and regeneration of wool keratin in the deep eutectic solvent of choline chloride-urea. Int. Journal of Biological Macromolecules 2018; 119: 423–430.
• [11] Saravana PS, Cho YN, Woo HC, Chun BS. Green and efficient extraction of polysaccharides from brown seaweed by adding deep eutectic solvent in subcritical water hydrolysis. Journal of Cleaner Production 2018; 198: 1474-1484.
• [12] Chen Z, Reznicek WD, Wan C. Deep eutectic solvent pretreatment enabling full utilization of switchgrass”, Bioresource Technology 2018; 263: 40–48.
• [13] Satlewal A, Agrawal R, Bhagia S, Sangoro J, Ragauskas A J. Natural deep eutectic solvents for lignocellulosic biomass pretreatment: Recent developments, challenges and novel opportunities. Biotechnology Advances 2018; 36: 2032–2050.
• [14] Sert M, Arslanoglu A, Ballice L. Conversion of sunflower stalk based cellulose to the valuable products using choline chloride based deep eutectic solvents. Renewable Energy 2018; 118: 993-1000.
• [15] Gawade AB, Yadav GD. Microwave assisted synthesis of 5-ethoxymethylfurfural in one pot from D-fructose by using deep eutectic solvent as catalyst under mild condition. Biomass and Bioenergy 2018; 117: 38–43. [16] Chen Z, Wan C. Ultrafast fractionation of lignocellulosic biomass by microwave-assisted deep eutectic solvent pretreatment. Bioresource Technology 2018; 250: 532–537.
• [17] Li AL, Hou XD, Lin KP, Zhang X, Fu MH. Rice straw pretreatment using deep eutectic solvents with different constituents molar ratios: Biomass fractionation, polysaccharides enzymatic digestion and solvent reuse. Journal of Bioscience and Bioengineering 2018; 126-3: 346-354.
• [18] Mjalli FS, Naser J, Jibril B, Al-Hatmi SS, Gano ZS. Ionic liquids analogues based on potassium carbonate”, Thermochimica Acta 2014; 575: 135– 143.
• [19] Mjalli FS, Ahmed OU. Characteristics and intermolecular interaction of eutectic binary mixtures: Reline and Glyceline. Korean J. Chem. Eng. 2016; 33(1): 337-343.
• [20] Möller M, Nilges P, Harnisch F, Schröder U. Subcritical Water as Reaction Environment: Fundamentals of Hydrothermal Biomass Transformation. ChemSusChem. 2011; 4: 566 – 579.
• [21] Harry I, Ibrahim H, Thring R, Idem R. Catalytic subcritical water liquefaction of flax straw for high yield of furfural. Biomass and Bioenergy 2014; 71: 381-393.
• [22] Abbas Q, Binder L. Synthesis and characterization of choline chloride based binary mixtures. ECS Transactions 2010; 33-7: 49-59.
• [23] Gallo J.M.R., Trappb M.A. The Chemical Conversion of Biomass-Derived Saccharides: an Overview: J. Braz. Chem. Soc. 2017; 28-9: 1586-1607.
• [24] Kumar K, Parveen F, Patra T, Upadhyayula S. Hydrothermal conversion of glucose to levulinic acid using multifunctional ionic liquids: effects of metal ion co-catalysts on the product yield. New J. Chem. 2018; 42: 228-236.
• [25] DelbecqF, Wang Y, Muralidhara A, El Ouardi K, Marlair G, Len C. Hydrolysis of Hemicellulose and Derivatives—A Review of Recent Advances in the Production of Furfural. Frontiers in Chemistry 2018; 6: 146-175.
• [26] Hartono CD, Marlie KJ, Putro JN. Levulinic acid from corncob by subcritical water process. Int. J. Ind. Chem. 2016; 7: 401–409.
• [27] Aida TM, Shiraishi N, Kubo M, Watanabe M, Smith RL Jr. Reaction kinetics of d-xylose in sub- and supercritical water. J. of Supercritical Fluids, 2010; 55: 208–216.