Lingyun Chen
H指数:60
被引数:1.0万
个人简介
Holds a PhD from Wuhan University, China. Currently serving as the 2014-2024 Canadian Research Chair (Tier 2) in Plant protein, Structure Function & Nutraceutical Delivery. Honored as 2020-2021 Killam Annual Professors, 2026 Fellow, American Chemical Society (ACS) — Agricultural and Food Chemistry Division, and 2026 Award of Merit, American Oil Chemists' Society (AOCS). Research focuses on plant protein structures underlying its functional properties. Applied knowledge to develop plant protein ingredients of improved functionalities, texture and nutritional properties for food applications. Designs functional organization from molecular level to fabricate biodegradable materials based biopolymers (hydrogels, microgels, fibers, films, micro- and nano-particles) with multiple functions (self-healing, adhesive, lubrication printing) for nutraceutical delivery, biomedical and environmental applications.
教育背景
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工作经历
暂无内容
荣誉奖项
- 2014-2024 Canadian Research Chair (Tier 2) in Plant protein, Structure Function & Nutraceutical Delivery
- 2020-2021 Killam Annual Professors
- 2026 Fellow, American Chemical Society (ACS) — Agricultural and Food Chemistry Division(2026)|American Chemical Society (ACS) — Agricultural and Food Chemistry Division
- 2026 Award of Merit, American Oil Chemists' Society (AOCS)(2026)|American Oil Chemists' Society (AOCS)
食用海藻Pterocladiella capillacea的神经保护潜力:生物活性偶联LC-MS/MS、代谢组学注释、验证和网络药理学
Nutrients
IF5
低强度激光通过协调糖运输和碳代谢来增强果实库容量,从而提高番茄产量
加工和改性技术对豌豆蛋白分离物结构与工艺功能性质的影响
长效纳米铁与速效离子铁肥料的最佳组合:一种提高花生肥料效率和经济效益的协同策略
魔芋葡甘露聚糖与果胶、羧甲基纤维素和乙基纤维素共混物的极性依赖性相互作用与结构组织
Food Hydrocolloids
IF12.4
豆科植物球蛋白的超分子重构为微凝胶和类淀粉样纤维以增强其功能
在CuFeO2/g-C3N4/Co掺杂Zn-Al-LDH三元复合材料上的协同吸附-光催化去除痕量NBFRs
利用不同脱乙酰度壳聚糖和壳聚糖包覆豌豆蛋白海绵提高甜乳清中β-乳球蛋白的回收率
裸麦蛋白水解物的超滤可增强其抗氧化和工艺功能特性
肉桂樟种子核油综述:提取、成分、健康益处、安全性及食品应用
物理交联的生物聚合物基强韧可拉伸有机水凝胶,具有自修复性和生物相容性,适用于环境耐受型应变传感器
环境老化微塑料在工程表面的吸附、沉积和去除的分子机制
茶皂素提高了豌豆蛋白冷凝胶乳液的物理稳定性
生物聚合物改性在制备3D可打印水凝胶方面的最新进展
光热甲烷干重整:催化剂结构;机理路径;以及未来挑战
豌豆7S蛋白与三种酚类化合物的竞争性结合及其特性:对消化和肠道转运的启示
Food Chemistry
IF9.8
液氮低温预处理对木质纤维素生物质热解产物特性的影响
Renewable Energy
IF9.1
勘误:题为“高温下农业秸秆中官能团的演变:原位同步辐射红外光谱”的文章。[Bioresource Technol. 437 (2025) 133125]
miR169z-NF-YA5-GPDHc1 模块通过提高 NAD+ 水平来抑制 ROS 产生,从而提高杨树的抗旱性。
New Phytologist
IF8.1

