Research progress on ultrasound modification of tuber and root starches

doi:10.3969/j.issn.1004-1524.20260040

Acta Agriculturae Zhejiangensis ›› 2026, Vol. 38 ›› Issue (6): 1271-1284.DOI: 10.3969/j.issn.1004-1524.20260040

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Research progress on ultrasound modification of tuber and root starches

XIONG Shujian¹(), XIA Qiquan¹, HU Weiwei²^,^*()

¹ School of Tourism and Culinary Science, Yangzhou University, Yangzhou 225127, Jiangsu, China
² Institute of Food Science, Zhejiang Academy of Agricultural Sciences, Hangzhou 310021, China

Received:2026-01-18 Online:2026-06-25 Published:2026-07-14

Abstract

Abstract:

As important non-cereal starch sources, tuber and root starches not only provide dietary energy, but are also suitable for the food and pharmaceutical fields due to their unique granule characteristics and good emulsifying and gelling properties. However, natural tuber and root starches often suffer from limitations such as low thermal stability and high retrogradation tendency, which restrict their further applications. Ultrasound, a green and efficient non-thermal physical processing technique, avoids chemical reagent residues and minimizes thermal damage to the sensory and nutritional quality of products, demonstrating distinct advantages in starch modification. To expand the applications of root and tuber starches in food and pharmaceutical fields, this review systematically summarizes their structural and property characteristics, and then analyzes the effects of ultrasound on the multi-scale structure of starch and the resulting evolution of physicochemical properties and modification mechanisms. Furthermore, the intrinsic relationships between ultrasound-induced structural changes and processing characteristics, including thermodynamic, pasting, and rheological properties, are further discussed. By summarizing recent advances in ultrasound modification of root and tuber starches, this review provides a theoretical basis and practical reference for the application of non-thermal ultrasonic technology in the value-added processing of these starches.

Key words: ultrasound modification, tuber and root starch, multi-scale structure, functional property

CLC Number:

TS231

XIONG Shujian, XIA Qiquan, HU Weiwei. Research progress on ultrasound modification of tuber and root starches[J]. Acta Agriculturae Zhejiangensis, 2026, 38(6): 1271-1284.

Figures/Tables 5

References 69

[1]	JAYAKODY L, HOOVER R, LIU Q, et al. Studies on tuber and root starches I: structure and physicochemical properties of innala (Solenostemon rotundifolius) starches grown in Sri Lanka[J]. Food Research International, 2005, 38(6): 615-629.
[2]	GUO K, LIN L S, LI E P, et al. Effects of growth temperature on multi-scale structure of root tuber starch in sweet potato[J]. Carbohydrate Polymers, 2022, 298: 120136.
[3]	陈林林, 宋佳琪, 李伟, 等. 非热加工技术对淀粉结构特性影响的研究进展[J]. 食品科学, 2023, 44(7): 380-393.
	CHEN L L, SONG J Q, LI W, et al. Research progress on the effect of non-thermal processing technology on the structural properties of starch[J]. Food Science, 2023, 44(7): 380-393.
[4]	SORIA A C, VILLAMIEL M. Effect of ultrasound on the technological properties and bioactivity of food: a review[J]. Trends in Food Science & Technology, 2010, 21(7): 323-331.
[5]	欧阳群富. 超声处理对不同晶型淀粉的结构及理化性能的影响[D]. 长沙: 中南林业科技大学, 2021.
	OUYANG Q F. Effect of ultrasonic treatment on structure and physicochemical properties of starch with different crystal forms[D]. Changsha: Central South University of Forestry & Technology, 2021.
[6]	YANG W H, KONG X L, ZHENG Y X, et al. Controlled ultrasound treatments modify the morphology and physical properties of rice starch rather than the fine structure[J]. Ultrasonics Sonochemistry, 2019, 59: 104709.
[7]	SUJKA M, JAMROZ J. Ultrasound-treated starch: SEM and TEM imaging, and functional behaviour[J]. Food Hydrocolloids, 2013, 31(2): 413-419.
[8]	DEREJE B. Composition, morphology and physicochemical properties of starches derived from indigenous Ethiopian tuber crops: a review[J]. International Journal of Biological Macromolecules, 2021, 187: 911-921.
[9]	MATHOBO V M, SILUNGWE H, RAMASHIA S E, et al. Effects of heat-moisture treatment on the thermal, functional properties and composition of cereal, legume and tuber starches: a review[J]. Journal of Food Science and Technology, 2021, 58(2): 412-426.
[10]	邹金浩, 李燕, 欧阳华峰, 等. 不同薯类淀粉结构性质与粉条品质的关系[J]. 食品科学, 2020, 41(23): 77-82.
	ZOU J H, LI Y, OUYANG H F, et al. Structural properties of starches from various root crops and their effect on vermicelli quality[J]. Food Science, 2020, 41(23): 77-82.
[11]	张奎亮, 代养勇, 侯汉学, 等. 超声处理对马铃薯淀粉结构特性及理化性质的影响[J]. 食品科学, 2018, 39(5): 128-134.
	ZHANG K L, DAI Y Y, HOU H X, et al. Effect of ultrasonic treatment on structure and physicochemical properties of potato starch[J]. Food Science, 2018, 39(5): 128-134.
[12]	翟一潭, 柏玉香, 李晓晓, 等. 酶法改性淀粉颗粒的研究进展[J]. 食品科学, 2021, 42(7): 319-328.
	ZHAI Y T, BAI Y X, LI X X, et al. Preparation, characterization, physicochemical property and potential application of enzyme-modified starch: a review[J]. Food Science, 2021, 42(7): 319-328.
[13]	李艺博. 不同甘薯品种淀粉的理化特性研究[D]. 扬州: 扬州大学, 2022.
	LI Y B. Physicochemical properties of starches from different sweet potato varieties[D]. Yangzhou: Yangzhou University, 2022.
[14]	TONG C, RU W D, WU L H, et al. Fine structure and relationships with functional properties of pigmented sweet potato starches[J]. Food Chemistry, 2020, 311: 126011.
[15]	GUO K, LIU T X, XU A H, et al. Structural and functional properties of starches from root tubers of white, yellow, and purple sweet potatoes[J]. Food Hydrocolloids, 2019, 89: 829-836.
[16]	ZHAO X, HOFVANDER P, ANDERSSON M, et al. Internal structure and thermal properties of potato starches varying widely in amylose content[J]. Food Hydrocolloids, 2023, 135: 108148.
[17]	YANG Z L, ZHANG Y Y, WU Y W, et al. Factors influencing the starch digestibility of starchy foods: a review[J]. Food Chemistry, 2023, 406: 135009.
[18]	王谊, 陈龙, 程昊, 等. 油炸高温处理对淀粉结构与性质的影响[J]. 中国粮油学报, 2021, 36(8): 137-144.
	WANG Y, CHEN L, CHENG H, et al. Effect of deep frying at high temperature on the structure and properties of starch[J]. Journal of the Chinese Cereals and Oils Association, 2021, 36(8): 137-144.
[19]	OUYANG Q F, WANG X Y, XIAO Y W, et al. Structural changes of A-, B- and C-type starches of corn, potato and pea as influenced by sonication temperature and their relationships with digestibility[J]. Food Chemistry, 2021, 358: 129858.
[20]	RAHAMAN A, KUMARI A, ZENG X A, et al. Ultrasound based modification and structural-functional analysis of corn and cassava starch[J]. Ultrasonics Sonochemistry, 2021, 80: 105795.
[21]	CAO M F, GAO Q Y. Effect of dual modification with ultrasonic and electric field on potato starch[J]. International Journal of Biological Macromolecules, 2020, 150: 637-643.
[22]	张超, 邓艳琴, 李书艺, 等. 高场强超声影响葛根淀粉溶解性与冻融稳定性的作用机制[J]. 食品科技, 2022, 47(11): 205-212.
	ZHANG C, DENG Y Q, LI S Y, et al. Mechanism of action of high field ultrasonic influence on solubility and freeze-thaw stability of kudzu starch[J]. Food Science and Technology, 2022, 47(11): 205-212.
[23]	朱盼, 谢娟平. 秦巴山区新鲜粉葛淀粉的提取工艺优化及其性质研究[J]. 化学与生物工程, 2020, 37(7): 30-37.
	ZHU P, XIE J P. Optimization in extraction process of starch from fresh Pueraria thomsonii in Qinba Mountain Area and its properties[J]. Chemistry & Bioengineering, 2020, 37(7): 30-37.
[24]	SINGH R, SHARANAGAT V S. Physico-functional and structural characterization of ultrasonic-assisted chemically modified elephant foot yam starch[J]. International Journal of Biological Macromolecules, 2020, 164: 1061-1069.
[25]	王伟良. 不同处理对荔浦芋淀粉加工特性和体外消化性能的影响研究[D]. 南宁: 广西大学, 2022.
	WANG W L. Effects of different treatments on the processing properties and in vitro digestibility of Lipu taro starch[D]. Nanning: Guangxi University, 2022.
[26]	虞诗磊. 莲藕淀粉的提取及特性研究[D]. 武汉: 武汉轻工大学, 2017.
	YU S L. Study on extraction and characteristics of lotus root[D]. Wuhan: Wuhan Polytechnic University, 2017.
[27]	VELA A J, VILLANUEVA M, LI C, et al. Ultrasound treatments of tef [Eragrostis tef(Zucc.) Trotter] flour rupture starch α-(1, 4) bonds and fragment amylose with modification of gelatinization properties[J]. LWT, 2023, 174: 114463.
[28]	MARTINS A, BENINCA C, BET C D, et al. Ultrasonic modification of purple taro starch (Colocasia esculenta B. Tini): structural, psychochemical and thermal properties[J]. Journal of Thermal Analysis and Calorimetry, 2020, 142(2): 819-828.
[29]	KAUL S, KAUR K, KAUR J, et al. Properties of potato starch as influenced by microwave, ultrasonication, alcoholic-alkali and pre-gelatinization treatments[J]. International Journal of Biological Macromolecules, 2023, 226: 1341-1351.
[30]	李辰, 刘培华, 陈雨, 等. 马铃薯淀粉糊相对分子质量在超声场中的变化规律[J]. 食品科学, 2017, 38(19): 61-67.
	LI C, LIU P H, CHEN Y, et al. Changes in relative molecular mass of potato starch paste in ultrasonic field[J]. Food Science, 2017, 38(19): 61-67.
[31]	HAN L H, HUANG J P, YU Y T, et al. The alterations in granule, shell, blocklets, and molecular structure of pea starch induced by ultrasound[J]. International Journal of Biological Macromolecules, 2023, 240: 124319.
[32]	MONROY Y, RIVERO S, GARCÍA M A. Microstructural and techno-functional properties of cassava starch modified by ultrasound[J]. Ultrasonics Sonochemistry, 2018, 42: 795-804.
[33]	聂卉, 张云飞, 李坚斌. 超声场中马铃薯淀粉糊剪切稀化及触变规律研究[J]. 食品工业, 2019, 40(1): 142-146.
	NIE H, ZHANG Y F, LI J B. The shear-thinning nature and thixotropic behavior of potato starch paste with ultrasonication treatment[J]. The Food Industry, 2019, 40(1): 142-146.
[34]	唐君钰, 周建伟, 高德, 等. 多物理场促进抗性淀粉生成的研究进展[J]. 食品科学, 2020, 41(23): 283-292.
	TANG J Y, ZHOU J W, GAO D, et al. Progress in resistant starch prepared via multi-physical fields[J]. Food Science, 2020, 41(23): 283-292.
[35]	HE X N, LYU L, LUO Y W, et al. Advances in ultrasound-assisted starch modification: parameter optimization, structure-property relationships, and synergistic strategies[J]. Carbohydrate Polymers, 2026, 378: 124907.
[36]	ULBRICH M, BAI Y, FLÖTER E. The supporting effect of ultrasound on the acid hydrolysis of granular potato starch[J]. Carbohydrate Polymers, 2020, 230: 115633.
[37]	KHURSHIDA S, DAS M J, DEKA S C, et al. Effect of dual modification sequence on physicochemical, pasting, rheological and digestibility properties of cassava starch modified by acetic acid and ultrasound[J]. International Journal of Biological Macromolecules, 2021, 188: 649-656.
[38]	WANG H W, XU K, MA Y, et al. Impact of ultrasonication on the aggregation structure and physicochemical characteristics of sweet potato starch[J]. Ultrasonics Sonochemistry, 2020, 63: 104868.
[39]	CARMONA-GARCÍA R, BELLO-PÉREZ L A, AGUIRRE-CRUZ A, et al. Effect of ultrasonic treatment on the morphological, physicochemical, functional, and rheological properties of starches with different granule size[J]. Starch/Stärke, 2016, 68(9/10): 972-979.
[40]	BERNARDO C O, ASCHERI J L R, CHÁVEZ D W H, et al. Ultrasound assisted extraction of yam (Dioscorea bulbífera) starch: effect on morphology and functional properties[J]. Starch/Stärke, 2018, 70(5/6): 1700185.
[41]	RAZA H, AMEER K, MA H L, et al. Structural and physicochemical characterization of modified starch from arrowhead Tuber(Sagittaria sagittifolia L.) using tri-frequency power ultrasound[J]. Ultrasonics Sonochemistry, 2021, 80: 105826.
[42]	陈洁, 郭泽镔, 刘贵珍, 等. 超声波处理木薯淀粉对其流变特性的影响[J]. 福建农林大学学报(自然科学版), 2013, 42(1): 86-92.
	CHEN J, GUO Z B, LIU G Z, et al. Rheological properties of cassava starch treated by ultrasonic[J]. Journal of Fujian Agriculture and Forestry University (Natural Science Edition), 2013, 42(1): 86-92.
[43]	IIDA Y, TUZIUTI T, YASUI K, et al. Control of viscosity in starch and polysaccharide solutions with ultrasound after gelatinization[J]. Innovative Food Science & Emerging Technologies, 2008, 9(2): 140-146.
[44]	NIE H, LI C, LIU P H, et al. Retrogradation, gel texture properties, intrinsic viscosity and degradation mechanism of potato starch paste under ultrasonic irradiation[J]. Food Hydrocolloids, 2019, 95: 590-600.
[45]	JIN J, LIN H B, YAGOUB A E A, et al. Effects of high power ultrasound on the enzymolysis and structures of sweet potato starch[J]. Journal of the Science of Food and Agriculture, 2020, 100(8): 3498-3506.
[46]	LI Y H, WU Z F, WAN N, et al. Extraction of high-amylose starch from Radix Puerariae using high-intensity low-frequency ultrasound[J]. Ultrasonics Sonochemistry, 2019, 59: 104710.
[47]	NOOR N, GANI A, JHAN F, et al. Resistant starch type 2 from lotus stem: ultrasonic effect on physical and nutraceutical properties[J]. Ultrasonics Sonochemistry, 2021, 76: 105655.
[48]	KANG X M, LIU P F, GAO W, et al. Preparation of starch-lipid complex by ultrasonication and its film forming capacity[J]. Food Hydrocolloids, 2020, 99: 105340.
[49]	石海信, 周文红, 陆来仙, 等. 超声场对木薯淀粉颗粒形貌与谱学性质的影响[J]. 食品科技, 2014, 39(5): 234-238.
	SHI H X, ZHOU W H, LU L X, et al. Effects of ultrasonic field on the granular morphology and spectroscopic properties of cassava starch[J]. Food Science and Technology, 2014, 39(5): 234-238.
[50]	SUJKA M. Ultrasonic modification of starch: impact on granules porosity[J]. Ultrasonics Sonochemistry, 2017, 37: 424-429.
[51]	DUKARE A S, ARPUTHARAJ A, BHARIMALLA A K, et al. Nanostarch production by enzymatic hydrolysis of cereal and tuber starches[J]. Carbohydrate Polymer Technologies and Applications, 2021, 2: 100121.
[52]	MINAKAWA A F K, FARIA-TISCHER P C S, MALI S. Simple ultrasound method to obtain starch micro- and nanoparticles from cassava, corn and yam starches[J]. Food Chemistry, 2019, 283: 11-18.
[53]	AHMAD M, GANI A, HASSAN I, et al. Production and characterization of starch nanoparticles by mild alkali hydrolysis and ultra-sonication process[J]. Scientific Reports, 2020, 10: 3533.
[54]	秦仁炳, 王书军, 项丰娟, 等. 淀粉-脂质复合物在热加工过程中的结构变化及其对体外消化性影响[J]. 食品科学, 2021, 42(1): 47-51.
	QIN R B, WANG S J, XIANG F J, et al. Changes in the structure and in vitro enzymatic digestibility of starch-lipid complexes after autoclaving treatment[J]. Food Science, 2021, 42(1): 47-51.
[55]	HU A J, LI Y, ZHENG J. Dual-frequency ultrasonic effect on the structure and properties of starch with different size[J]. LWT, 2019, 106: 254-262.
[56]	SINGLA D, SINGH A, DHULL S B, et al. Taro starch: isolation, morphology, modification and novel applications concern: a review[J]. International Journal of Biological Macromolecules, 2020, 163: 1283-1290.
[57]	ZHANG J, YU P B, FAN L P, et al. Effects of ultrasound treatment on the starch properties and oil absorption of potato chips[J]. Ultrasonics Sonochemistry, 2021, 70: 105347.
[58]	MANCHUN S, NUNTHANID J, LIMMATVAPIRAT S, et al. Effect of ultrasonic treatment on physical properties of tapioca starch[J]. Advanced Materials Research, 2012, 506: 294-297.
[59]	LUO Z G, FU X, HE X W, et al. Effect of ultrasonic treatment on the physicochemical properties of maize starches differing in amylose content[J]. Starch/Stärke, 2008, 60(11): 646-653.
[60]	PARK S, KIM Y R. Clean label starch: production, physicochemical characteristics, and industrial applications[J]. Food Science and Biotechnology, 2021, 30(1): 1-17.
[61]	SCHAFRANSKI K, ITO V C, LACERDA L G. Impacts and potential applications: a review of the modification of starches by heat-moisture treatment (HMT)[J]. Food Hydrocolloids, 2021, 117: 106690.
[62]	IBANOČ LU Ş, ÖZASLAN Z T, IBANOČ LU E. Effects of ultrasonication and aqueous ozonation on gelatinization and flow properties of potato starch[J]. Ozone: Science & Engineering, 2018, 40(2): 105-112.
[63]	ZHANG Y J, DAI Y Y, YU K X, et al. Preparation of octenyl succinic anhydride-modified cassava starch by the ultrasonic-assisted method and its influence mechanism[J]. Journal of Food Processing and Preservation, 2019, 43(12): e14222.
[64]	BENTO J A C, FERREIRA K C, FIDELIS M C, et al. Ultrasound modification of white garland-lily starch: functional, thermal, and pasting properties[J]. Starch/Stärke, 2021, 73(3/4): 2000129.
[65]	LJUBIĆ HERCEG I, REŽEK JAMBRAK A, ŠUBARIĆ D, et al. Texture and pasting properties of ultrasonically treated corn starch[J]. Czech Journal of Food Sciences, 2010, 28(2): 83-93.
[66]	ZHENG J, LI Q, HU A J, et al. Dual-frequency ultrasound effect on structure and properties of sweet potato starch[J]. Starch/Stärke, 2013, 65(7/8): 621-627.
[67]	胡方洋, 陈金玉, 张坤生, 等. 超声制备抗性淀粉及其对香肠品质和血糖生成指数的影响[J]. 中国食品学报, 2022, 22(4): 125-138.
	HU F Y, CHEN J Y, ZHANG K S, et al. Ultrasonic preparation of resistant starch and its effect on the quality and glycemic index of sausage[J]. Journal of Chinese Institute of Food Science and Technology, 2022, 22(4): 125-138.
[68]	杨翦秋, 毕会敏, 范方宇. 木薯纳米淀粉的制备及乳化性能研究[J]. 食品与发酵工业, 2024, 50(5): 243-248.
	YANG J Q, BI H M, FAN F Y. Preparation and emulsification of cassava starch nanoparticles[J]. Food and Fermentation Industries, 2024, 50(5): 243-248.
[69]	张楚佳, 窦博鑫, 高嫚, 等. 物理法制备RS3型抗性淀粉的研究进展[J]. 食品工业科技, 2023, 44(13): 425-433.
	ZHANG C J, DOU B X, GAO M, et al. Progress in the preparation of RS3 resistant starch by physical methods[J]. Science and Technology of Food Industry, 2023, 44(13): 425-433.

淀粉来源 Starch source	结构特征 Structural characteristics	颗粒形态 Granule morphology	参考文献 Reference
木薯 Cassava	A型结晶(22.20%) A-type crystallinity(22.20%)	呈椭球形,表面光滑,小部分颗粒表面存在裂缝或凹陷 Ellipsoidal with smooth surface, a few granules with cracks or depressions	[20]
马铃薯 Potato	B型结晶(35.40%) B-type crystallinity(35.40%)	呈卵圆形或球形,粒形完整且表面光滑 Oval or spherical, intact and smooth surface	[21]
甘薯 Sweet potato	A型结晶(22.3%~25.5%) A-type crystallinity(22.3%~25.5%)	呈多边形、椭圆形和圆形,表面相对光滑,不含气孔和裂纹 Polygonal, elliptical, and round, relatively smooth surface without pores or cracks	[15]
葛(根) Kudzu	C&A型结晶(66.76%) C- & A-type crystallinity(66.76%)	呈圆球或表面光滑的多边形 Spherical or smooth-surfaced polygonal	[22-23]
山药 Yam	CA型结晶(22.71%) CA-type crystallinity(22.71%)	呈椭圆形,颗粒粒径较大,光滑的表面,以分散形式存在 Elliptical with large particle size, smooth surface, dispersed form	[24]
芋头 Taro	A型结晶(38.36%) A-type crystallinity(38.36%)	呈不规则多面体型,且颗粒表面光滑、均匀 Irregular polyhedral, smooth and uniform surface	[25]
莲藕 Lotus	B型结晶 B-type crystallinity	多数呈短棒状,少数为椭圆形,表面光滑,无裂痕 Mostly short-rod shaped, partically elliptical; smooth surface without cracks	[26]

淀粉来源 Starch source	结构特征 Structural characteristics	颗粒形态 Granule morphology	参考文献 Reference
木薯 Cassava	A型结晶(22.20%) A-type crystallinity(22.20%)	呈椭球形,表面光滑,小部分颗粒表面存在裂缝或凹陷 Ellipsoidal with smooth surface, a few granules with cracks or depressions	[20]
马铃薯 Potato	B型结晶(35.40%) B-type crystallinity(35.40%)	呈卵圆形或球形,粒形完整且表面光滑 Oval or spherical, intact and smooth surface	[21]
甘薯 Sweet potato	A型结晶(22.3%~25.5%) A-type crystallinity(22.3%~25.5%)	呈多边形、椭圆形和圆形,表面相对光滑,不含气孔和裂纹 Polygonal, elliptical, and round, relatively smooth surface without pores or cracks	[15]
葛(根) Kudzu	C&A型结晶(66.76%) C- & A-type crystallinity(66.76%)	呈圆球或表面光滑的多边形 Spherical or smooth-surfaced polygonal	[22-23]
山药 Yam	CA型结晶(22.71%) CA-type crystallinity(22.71%)	呈椭圆形,颗粒粒径较大,光滑的表面,以分散形式存在 Elliptical with large particle size, smooth surface, dispersed form	[24]
芋头 Taro	A型结晶(38.36%) A-type crystallinity(38.36%)	呈不规则多面体型,且颗粒表面光滑、均匀 Irregular polyhedral, smooth and uniform surface	[25]
莲藕 Lotus	B型结晶 B-type crystallinity	多数呈短棒状,少数为椭圆形,表面光滑,无裂痕 Mostly short-rod shaped, partically elliptical; smooth surface without cracks	[26]

淀粉类型 Starch type	超声处理条件 Ultrasound conditions	分子结构、结晶度 Molecular structure & crystallinity	颗粒形态 Granule morphology	溶解度和膨胀度 Solubility & swelling power	加工特性 Processing properties	参考文献 Reference
马铃薯淀粉 Potato starch	30%(m/m),5、15、25、35、50 ℃	表观直链淀粉含量增加27.77%~29.63%,短程分子有序度/结晶度下降 Apparent amylose content increases by 27.77%-29.63%, yet short-range molecular order/crystallinity decreases	颗粒表面粗糙并出现划痕 Rough and scratched granule surface	—	T_o、T_p、T_c、DG、DR、RS含量降低,ΔH下降10.47~12.74 J·g^-1,HR升高 T_o, T_p, T_c, DG, DR, RS contents decrease, ΔH decreases by 10.47-12.74 J·g^-1,HR increases	[19]
马铃薯淀粉 Potato starch	40%(m/m),200 W,24 kHz,20~60 min	分子量降低,粒径增大 Molecular weight decreases, particle size inreases	颗粒表面出现更多裂纹和孔隙 More cracks and pores on granule surface	溶解度增大 Increased solubility	淀粉糊剪切变稀,黏度降低 Shear-thinning behavior, viscosity decreases	[34]
木薯淀粉 Cassava starch	20%(m/m),26 ℃,40 kHz,10、20 min	短程分子有序度增大, 结晶度降低 Short-range molecular order increases, cystallinity decreases	颗粒表面产生了凹槽和缺口 Grooves and gaps on granule surface	—	T_o、T_p、T_c降低,ΔH下降8.86~10.32 J·g^-1 T_o, T_p, T_c decrease, ΔH decreases by 8.86-10.32 J·g^-1	[20]
木薯淀粉 Cassava starch	25% (m/m),40 ℃,20 kHz,140 W,15 min	—	颗粒出现裂缝和裂纹 Cracks and fissures on granule surface	溶胀指数、溶解度降低 Decreased swelling index and solubility	T_p、T_c、BD降低,G'、G″增大;SDS和RS含量增加 T_p, T_c,BD decrease, G' and G″ increase, and contents of SDS and RS increase	[35]
甘薯淀粉 Sweet potato starch	6%(m/m),300 W,20 kHz,15、20、25、30 min	表观直链淀粉含量增加25.8%~28.7%,短程分子有序度和结晶度降低 Apparent amylose content increases by 25.8%-28.7%, short-range order and crystallinity decresase	颗粒表面裂纹和孔隙增加 Increased cracks and pores on granule surface	溶胀指数和溶解度升高 Increased swelling index and solubility	T_o、T_p、T_c、PV、FV、BD下降,ΔH降低14.90~15.74 J·g^-1,凝胶网络结构改善 T_o, T_p, T_c, PV, FV, BD decrease, ΔH decreases by 14.90~15.74 J·g^-1,gel network enhances	[36]
芋头淀粉 Taro starch	5%(m/m),4 ℃,80 W,20、50 min	结晶度影响小,但结晶峰值下降 Minor effect on crystallinity, peak crystallinity decreases	颗粒表面产生空洞和裂痕 Holes and cracks on granule surface	溶胀指数和溶解度降低 Decreased swelling index and solubility	T_o、T_p、T_c、G'、G″降低,ΔH升高10.36~11.63 J·g^-1,PV增大 T_o, T_p, T_c, G', G″ decrease,ΔH increases by 10.36-11.63 J·g^-1, PV increases	[37]
山药淀粉 Yam starch	450 W,25 kHz,3、6、9、15 min	结晶度范围波动,无定形区域减小 Crystallinity fluctuates, amorphous region decreases	颗粒表面受损 Damaged surface	溶胀指数和溶解度增加 Increased swelling index and solubility	T_o、PV增大,ΔH降低14.15~17.51 J·g^-1 T_o and PV increase,ΔH decreases by 14.15-17.51 J·g^-1	[38]
慈姑淀粉 Arrowhead starch	10%(m/m),24 ℃,20、50 min,20、40、60 kHz	短程分子有序度和结晶度增加 Short-range order and crystallinity increase	颗粒表面有粗糙度和裂纹 Cracks and roughness on granule surface	吸水性和吸油性、溶胀指数、溶解度增加 Increased water/oil absorption, swelling index, solubility	T_o、T_p、T_c增大,ΔH降低3.41~4.92 J·g^-1,淀粉糊剪切变稀,黏度降低 T_o, T_p, T_c increase,ΔH decreases by 3.41-4.92 J·g^-1, shear-thinning behavior, viscosity decreases	[39]
葛根淀粉 Kudzu starch	33.3%(m/m),30 ℃,40 kHz	表观直链淀粉含量降低55.10%,短程分子有序度和结晶度减小 Apparent amylose content decreases by 55.10%, short-range order and crystallinity decrease	颗粒表面产生孔洞和凹陷 Holes and depressions on granule surface	溶解度增大 Increased solubility	T_o、T_p、T_c、G″降低,ΔH升高14.37 J·g^-1 T_o,T_p, T_c, G″ decrease,ΔH increases by 14.37 J·g^-1	[40]

淀粉类型 Starch type	超声处理条件 Ultrasound conditions	分子结构、结晶度 Molecular structure & crystallinity	颗粒形态 Granule morphology	溶解度和膨胀度 Solubility & swelling power	加工特性 Processing properties	参考文献 Reference
马铃薯淀粉 Potato starch	30%(m/m),5、15、25、35、50 ℃	表观直链淀粉含量增加27.77%~29.63%,短程分子有序度/结晶度下降 Apparent amylose content increases by 27.77%-29.63%, yet short-range molecular order/crystallinity decreases	颗粒表面粗糙并出现划痕 Rough and scratched granule surface	—	T_o、T_p、T_c、DG、DR、RS含量降低,ΔH下降10.47~12.74 J·g^-1,HR升高 T_o, T_p, T_c, DG, DR, RS contents decrease, ΔH decreases by 10.47-12.74 J·g^-1,HR increases	[19]
马铃薯淀粉 Potato starch	40%(m/m),200 W,24 kHz,20~60 min	分子量降低,粒径增大 Molecular weight decreases, particle size inreases	颗粒表面出现更多裂纹和孔隙 More cracks and pores on granule surface	溶解度增大 Increased solubility	淀粉糊剪切变稀,黏度降低 Shear-thinning behavior, viscosity decreases	[34]
木薯淀粉 Cassava starch	20%(m/m),26 ℃,40 kHz,10、20 min	短程分子有序度增大, 结晶度降低 Short-range molecular order increases, cystallinity decreases	颗粒表面产生了凹槽和缺口 Grooves and gaps on granule surface	—	T_o、T_p、T_c降低,ΔH下降8.86~10.32 J·g^-1 T_o, T_p, T_c decrease, ΔH decreases by 8.86-10.32 J·g^-1	[20]
木薯淀粉 Cassava starch	25% (m/m),40 ℃,20 kHz,140 W,15 min	—	颗粒出现裂缝和裂纹 Cracks and fissures on granule surface	溶胀指数、溶解度降低 Decreased swelling index and solubility	T_p、T_c、BD降低,G'、G″增大;SDS和RS含量增加 T_p, T_c,BD decrease, G' and G″ increase, and contents of SDS and RS increase	[35]
甘薯淀粉 Sweet potato starch	6%(m/m),300 W,20 kHz,15、20、25、30 min	表观直链淀粉含量增加25.8%~28.7%,短程分子有序度和结晶度降低 Apparent amylose content increases by 25.8%-28.7%, short-range order and crystallinity decresase	颗粒表面裂纹和孔隙增加 Increased cracks and pores on granule surface	溶胀指数和溶解度升高 Increased swelling index and solubility	T_o、T_p、T_c、PV、FV、BD下降,ΔH降低14.90~15.74 J·g^-1,凝胶网络结构改善 T_o, T_p, T_c, PV, FV, BD decrease, ΔH decreases by 14.90~15.74 J·g^-1,gel network enhances	[36]
芋头淀粉 Taro starch	5%(m/m),4 ℃,80 W,20、50 min	结晶度影响小,但结晶峰值下降 Minor effect on crystallinity, peak crystallinity decreases	颗粒表面产生空洞和裂痕 Holes and cracks on granule surface	溶胀指数和溶解度降低 Decreased swelling index and solubility	T_o、T_p、T_c、G'、G″降低,ΔH升高10.36~11.63 J·g^-1,PV增大 T_o, T_p, T_c, G', G″ decrease,ΔH increases by 10.36-11.63 J·g^-1, PV increases	[37]
山药淀粉 Yam starch	450 W,25 kHz,3、6、9、15 min	结晶度范围波动,无定形区域减小 Crystallinity fluctuates, amorphous region decreases	颗粒表面受损 Damaged surface	溶胀指数和溶解度增加 Increased swelling index and solubility	T_o、PV增大,ΔH降低14.15~17.51 J·g^-1 T_o and PV increase,ΔH decreases by 14.15-17.51 J·g^-1	[38]
慈姑淀粉 Arrowhead starch	10%(m/m),24 ℃,20、50 min,20、40、60 kHz	短程分子有序度和结晶度增加 Short-range order and crystallinity increase	颗粒表面有粗糙度和裂纹 Cracks and roughness on granule surface	吸水性和吸油性、溶胀指数、溶解度增加 Increased water/oil absorption, swelling index, solubility	T_o、T_p、T_c增大,ΔH降低3.41~4.92 J·g^-1,淀粉糊剪切变稀,黏度降低 T_o, T_p, T_c increase,ΔH decreases by 3.41-4.92 J·g^-1, shear-thinning behavior, viscosity decreases	[39]
葛根淀粉 Kudzu starch	33.3%(m/m),30 ℃,40 kHz	表观直链淀粉含量降低55.10%,短程分子有序度和结晶度减小 Apparent amylose content decreases by 55.10%, short-range order and crystallinity decrease	颗粒表面产生孔洞和凹陷 Holes and depressions on granule surface	溶解度增大 Increased solubility	T_o、T_p、T_c、G″降低,ΔH升高14.37 J·g^-1 T_o,T_p, T_c, G″ decrease,ΔH increases by 14.37 J·g^-1	[40]

Research progress on ultrasound modification of tuber and root starches

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