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A systemic review of yak milk and its products on the Qinghai-Tibet Plateau: Unique products, chemical composition, biological activities, and microbial composition 青藏高原牦牛奶及其产品的系统回顾:独特的产品、化学成分、生物活性和微生物组成
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-17 DOI: 10.1016/j.tifs.2024.104792
Zhiqiang Liang , Xiaoqian Chen , Xinyu Wang , Xiaoxi Qi , Lina Zhang , Yu Xin , Zhenyu Yang , Rui Fan , Yang Li , Libo Liu , Chun Li

Background

In recent years, consumer demand for and interest in specialty milk has increased due to consumers’ taste preferences and health-conscious choices. Yak milk has attracted considerable attention owing to its special environment and nutritional properties and is known as “natural concentrated milk”. Comprehending the derivatives of yak milk, their nutritional profile, possible health advantages, and microbial diversity can aid in creating products with high added value.

Scope and approach

This paper comprehensively reviews the history of yaks and yak milk, yak milk products, chemical composition (volatile and non-volatile components), biological activities, and microbial composition, and proposes opportunities and challenges for further research on yak milk.

Key findings and conclusions

Yak milk and its products have a wide range of bioactive ingredients, including proteins, fats, fatty acids, amino acids, trace elements, and vitamins. In particular, the conjugated linoleic acid and immunoglobulin contents were significantly higher than those in the other animal milk. Its content varies according to species, altitude, and season. Yak milk and its components have demonstrated several potential biological activities in animal and in vitro studies, including antioxidant, antihypertensive, antibacterial, anti-inflammatory, anti-hypoxia, and immunomodulatory activities. Furthermore, understanding the microbial composition of yak milk and its products is crucial for quality control and flavor formation. Currently, the commercialization of yak milk and its products is limited owing to low yak milk production and the production environment, which requires further exploration of unique features and optimization of production process.
背景近年来,由于消费者的口味偏好和健康意识的提高,消费者对特种奶的需求和兴趣日益增加。牦牛奶因其特殊的环境和营养特性而备受关注,被誉为 "天然浓缩奶"。本文全面回顾了牦牛和牦牛奶的历史、牦牛奶产品、化学成分(挥发性和非挥发性成分)、生物活性和微生物组成,并提出了进一步研究牦牛奶的机遇和挑战。主要发现和结论牦牛奶及其制品中含有多种生物活性成分,包括蛋白质、脂肪、脂肪酸、氨基酸、微量元素和维生素。其中,共轭亚油酸和免疫球蛋白的含量明显高于其他动物奶。其含量因物种、海拔和季节而异。在动物和体外研究中,牦牛奶及其成分被证明具有多种潜在的生物活性,包括抗氧化、抗高血压、抗菌、抗炎、抗缺氧和免疫调节活性。此外,了解牦牛奶及其产品的微生物组成对于质量控制和风味形成也至关重要。目前,由于牦牛奶产量低和生产环境的原因,牦牛奶及其产品的商业化受到限制,这就需要进一步探索牦牛奶的独特功能和优化生产工艺。
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引用次数: 0
Nutritional composition, nutraceutical aspects, and medicinal benefits of garden cress (Lepidium sativum) seeds – A geographical and processing perspective 菜园芹(Lepidium sativum)种子的营养成分、营养保健方面和药用价值--地理和加工视角
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-14 DOI: 10.1016/j.tifs.2024.104791
Nirbhay Kumar, Sukhcharn Singh

Background

Garden cress (GC) seed is a super seed because of its high nutritional value and various medicinal properties. It is an underutilized seed that can be promoted to use as a functional ingredient to develop functional food product in the food industry.

Scope and approach

In this review, a complete overview about garden cress seed is described. The purpose of this review is to provide up to date summary of research findings related to garden cress seed. The current review discussed the nutritional composition of garden cress seed, effect of processing on nutritional composition, various medicinal properties and utilization of garden cress seed in the functional food product development in details. This study highlights the importance of raising awareness about garden cress seeds, which could help mitigate environmental and economic impacts while supporting food security.

Key findings and conclusions

Garden cress seeds are a promising source of macro and micronutrients. These seeds contain essential amino acids, essential fatty acids, bioactive compounds such as phenolic and flavonoid compound, and many minerals like iron, calcium, potassium, and phosphorus. Different processing methods affect the nutritional composition of garden cress seed and increase its sensory acceptability. GC seeds have many medicinal properties such as anti-oxidant, anti-inflammatory, anti-microbial, anti-cancer, anti-diabetic, cardio-protective, hepato-protective, neuro-protective etc. These seeds are also used to develop various functional foods with therapeutic benefits. If GC seeds are utilized in their full potential, it can eradicate the hunger and malnutrition.
背景花园芹(GC)种子是一种超级种子,因为它具有很高的营养价值和各种药用特性。它是一种未得到充分利用的种子,可作为一种功能性配料在食品工业中开发功能性食品。本综述的目的是提供有关菜籽的最新研究成果摘要。本综述详细讨论了芹菜种子的营养成分、加工对营养成分的影响、各种药用特性以及芹菜种子在功能食品开发中的应用。本研究强调了提高人们对园芹籽认识的重要性,这有助于减轻对环境和经济的影响,同时支持粮食安全。这些种子含有必需氨基酸、必需脂肪酸、生物活性化合物(如酚类和类黄酮化合物)以及多种矿物质(如铁、钙、钾和磷)。不同的加工方法会影响菜籽的营养成分,并增加其感官上的可接受性。GC 种子具有多种药用特性,如抗氧化、抗炎、抗微生物、抗癌、抗糖尿病、保护心血管、保护肝脏、保护神经等。这些种子还被用来开发各种具有治疗功效的功能食品。如果充分发挥 GC 种子的潜力,就能消除饥饿和营养不良。
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引用次数: 0
The (FWE)2 nexus: Bridging food, food waste, water, energy, and ecosystems for circular systems and sustainable development (FWE)2 关系:连接食物、食物垃圾、水、能源和生态系统,促进循环系统和可持续发展
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-13 DOI: 10.1016/j.tifs.2024.104788
Nour El Houda Chaher , Abdallah Nassour , Michael Nelles
<div><h3>Background</h3><div>The imperative for sustainable resource management has become increasingly critical in the context of a rapidly expanding global population and heightened resource demands, compounded by the pressing challenges of climate change and environmental degradation. Traditional sector-specific approaches, which frequently isolate agriculture, energy, and water management, have proven inadequate in addressing the complex interdependencies inherent in resource ecosystems. In this regard, the Food, Food Waste, Water, Energy, and Ecosystems ((FWE)<sup>2</sup>) nexus framework emerges as a transformative paradigm that advocates for an integrated understanding of these interconnected components. This framework is essential for the implementation of comprehensive strategies designed to address the multifaceted sustainability challenges confronting contemporary society.</div></div><div><h3>Scope and Approach</h3><div>The current research undertakes a comprehensive investigation of the (FWE)<sup>2</sup> nexus framework, elucidating the dynamic interactions among food systems, waste management, water utilization, energy production, and ecosystem integrity. Through an extensive synthesis of the current literature, illustrative case studies, and empirical analyses, multifaceted dynamics inherent to the nexus were outlined. Key themes prominently featured include the necessity of conceptualizing food waste (FW) as a critical resource, the strategic deployment of technology to enhance operational efficiency, and the integration of circular economy principles to optimize resource utilization. Collectively, these elements advocate for sustainable practices that can yield substantive benefits for society and the environment.</div></div><div><h3>Policy implications and key findings</h3><div>The (FWE)<sup>2</sup> nexus framework is essential for tackling the intertwined challenges of food production, FW management, water resources, energy consumption, and ecosystem health. Policymakers should prioritize collaborative efforts that unite government agencies, businesses, and communities. This synergy can create comprehensive strategies that enhance resource governance and improve global food security. Additionally, initiatives focused on public education and community engagement are vital, empowering individuals to actively participate in sustainable resource management and fostering significant societal and environmental benefits.</div><div>This research demonstrates the considerable potential of the (FWE)<sup>2</sup> nexus framework in advancing several Sustainable Development Goals (SDGs). Optimizing agricultural practices and reducing FW directly support SDG 2 (Zero Hunger) by enhancing food security and nutrition. Furthermore, Considering FW as a valuable resource aligns with SDG 12 (Responsible Consumption and Production), promoting sustainable consumption and waste reduction through circular economy principles that facilitate nutrient reco
背景在全球人口迅速增长、资源需求增加,以及气候变化和环境退化等紧迫挑战的背景下,可持续资源管理的必要性变得日益重要。传统的针对具体部门的方法往往将农业、能源和水资源管理割裂开来,事实证明这种方法不足以解决资源生态系统固有的复杂的相互依存关系。在这方面,粮食、厨余、水、能源和生态系统(FWE)2 关系框架作为一种变革范式应运而生,它主张综合理解这些相互关联的组成部分。当前的研究对(FWE)2 关系框架进行了全面调查,阐明了食物系统、废物管理、水资源利用、能源生产和生态系统完整性之间的动态互动关系。通过对现有文献、说明性案例研究和实证分析的广泛综合,概述了该关系固有的多方面动态。其中突出的关键主题包括:必须将食物垃圾(FW)概念化为一种重要资源;战略性地部署技术以提高运营效率;以及整合循环经济原则以优化资源利用。政策影响和主要结论(FWE)2 关系框架对于解决粮食生产、FW 管理、水资源、能源消耗和生态系统健康等相互交织的挑战至关重要。政策制定者应优先考虑联合政府机构、企业和社区的协作努力。这种协同作用可以制定全面的战略,加强资源治理,提高全球粮食安全。此外,以公众教育和社区参与为重点的举措也至关重要,这些举措可增强个人积极参与可持续资源管理的能力,并产生显著的社会和环境效益。这项研究表明,(FWE)2 关系框架在推进若干可持续发展目标(SDGs)方面具有巨大潜力。通过加强粮食安全和营养,优化农业实践和减少可持续发展目标 2(零饥饿)直接得到了支持。此外,将肥料和水视为宝贵资源符合可持续发展目标 12(负责任的消费和生产),通过促进营养回收和可再生能源生产的循环经济原则,促进可持续消费和减少废物。此外,通过促进节水和改善水质,有效的家庭废物管理可极大地促进可持续发展目标 6(清洁水和卫生)的实现。该框架还强调在粮食生产和废物管理中提高能效和使用可再生能源,从而支持可持续发展目标 7(负担得起的清洁能源)。此外,通过减少与粮食浪费和资源过度消耗相关的温室气体排放,该框架在可持续发展目标 13(气候行动)中发挥了至关重要的作用。通过将这些战略努力与更广泛的可持续发展目标框架相协调,(FWE)2 关系框架积极推动全球可持续发展议程,为实现造福当代和子孙后代的可持续发展提供了可行的途径。
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引用次数: 0
Machine learning-supported sensor array for multiplexed foodborne pathogenic bacteria detection and identification 用于多重食源性致病菌检测和识别的机器学习支持传感器阵列
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-12 DOI: 10.1016/j.tifs.2024.104787
Yi Wang , Yihang Feng , Boce Zhang , Abhinav Upadhyay , Zhenlei Xiao , Yangchao Luo

Background

Foodborne pathogens present a significant challenge to food safety. Traditional culture-based methods are often time-consuming and labor-intensive, while newer technologies have limitations, such as requiring specialized expertise or costly equipment. This has driven the development of sensor arrays, like electronic noses (e-noses) and optical sensor arrays, which use multiple cross-reactive sensor elements to generate unique fingerprints for various analytes.

Scope and approach

This review highlights recent advances in the design of sensor arrays and the materials commonly used as their building blocks. We outline four key principles for constructing sensor arrays: detecting volatile organic compounds (VOCs), antibody-based sensors, bacterial surface physiology and microenvironments, and metabolic activity. We also discuss the use of machine learning (ML) in sensor array interpretation and output. Additionally, we explore the challenges in multiplexed pathogen detection and emerging trends in the field.

Key findings and conclusions

Bacterial cell envelope microenvironments and metabolic activities have received the most attention in the development of sensor arrays. ML models play a critical role not only in pattern recognition but also in tasks like data preprocessing, such as correcting signal drift in e-noses and handling outliers. Challenges like small datasets are addressed through potential solutions such as few-shot learning and leave-one-out cross-validation. Sensor arrays show great promise for in-field pathogen identification, offering valuable benefits to food producers and processors alike.
背景食源性致病菌对食品安全构成重大挑战。传统的培养方法往往耗时耗力,而较新的技术也有其局限性,例如需要专业知识或昂贵的设备。这就推动了传感器阵列的发展,如电子鼻(e-noses)和光学传感器阵列,它们使用多个交叉反应传感器元件来为各种分析物生成独特的指纹。我们概述了构建传感器阵列的四个关键原则:检测挥发性有机化合物 (VOC)、基于抗体的传感器、细菌表面生理学和微环境以及代谢活动。我们还讨论了机器学习 (ML) 在传感器阵列解释和输出中的应用。此外,我们还探讨了多重病原体检测所面临的挑战以及该领域的新兴趋势。主要发现和结论在传感器阵列的开发过程中,细菌细胞包膜微环境和代谢活动最受关注。ML 模型不仅在模式识别中发挥着关键作用,而且在数据预处理等任务中也发挥着重要作用,例如纠正电子鼻中的信号漂移和处理异常值。小数据集等挑战可通过潜在的解决方案来解决,如少量学习和留空交叉验证。传感器阵列在现场病原体识别方面大有可为,可为食品生产商和加工商带来宝贵的利益。
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引用次数: 0
Healthy food design based on gut microbiota metabolic flux 根据肠道微生物群代谢通量设计健康食品
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-12 DOI: 10.1016/j.tifs.2024.104790
Fujie Yan , Shasha Xiang , Jian Ying , Jie Chen , Lihua Shi , Yalin Zhang , Jianzhong Han , Xuan Zhu

Background

Diet is a crucial factor in preventing the high incidence of chronic diseases and reducing medical costs, with the intestine serving as an important target for nutritional intervention. In the future, it will be even more important to think about what the gut microbiota “wants to eat”.

Scope and approach

This review introduces the metabolic flux regulation mechanism and evaluation system in the intestine, and further summarizes the development process of metabolic flux targeted food and its application in healthy food design, providing a perspective for the creation and large-scale promotion of new products targeting gut health.

Key findings and conclusions

Many metabolic pathways occur in the microbial cells of the human intestine, and the metabolic differences and interactions between different microbial populations, leading to a complex metabolic environment in the intestine. Through dietary regulation, restoring the gut microbiota diversity, increasing the relative abundance of beneficial bacteria, and reducing harmful metabolic products, thereby altering the physiological and pathological states of the host, will become a trend and hot topic in the development of the health food industry. With the development of artificial intelligence and multi-omics technologies, techniques for identifying potential intervention targets in gut microbiota and its metabolites have gradually matured, which is meaningful for improving health condition by targeting intestinal metabolic fluxes to regulate gut microbiota composition.
背景饮食是预防慢性病高发和降低医疗成本的关键因素,而肠道是营养干预的重要目标。范围和方法本综述介绍了肠道代谢通量调控机制和评价体系,进一步总结了代谢通量靶向食品的开发过程及其在健康食品设计中的应用,为创造和大规模推广针对肠道健康的新产品提供了一个视角。主要发现和结论人体肠道微生物细胞内存在多种代谢途径,不同微生物种群之间存在代谢差异和相互作用,导致肠道内代谢环境复杂。通过膳食调节,恢复肠道微生物群的多样性,增加有益菌的相对丰度,减少有害代谢产物,从而改变宿主的生理和病理状态,将成为保健食品产业发展的趋势和热点话题。随着人工智能和多组学技术的发展,识别肠道微生物群及其代谢产物潜在干预靶点的技术已逐渐成熟,这对于通过靶向肠道代谢通量来调节肠道微生物群组成,从而改善健康状况具有重要意义。
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引用次数: 0
Exploring the social dimensions of microbial food safety risk governance 探索微生物食品安全风险治理的社会维度
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-12 DOI: 10.1016/j.tifs.2024.104789
Charlie Van Paepeghem , Liesbeth Jacxsens , Wim Verbeke , Peter Vlerick , Mieke Uyttendaele

Background

Microbial food safety risk governance (MFSRG) is a systematic, continuous multistakeholder process aiming to ensure a high level of microbial food safety in society as well as to build and maintain trust and understanding among all stakeholder groups involved in the food system. MFSRG can only be effective if both risk assessment data and social data on the interests and concerns of all relevant stakeholder groups are collected in a consistent and standardised manner and are subsequently used to inform risk management and -communication.

Scope and approach

Despite global recognition among food safety authorities, policymakers, food practitioners, and academia on the importance of an MFSRG approach that embraces the integration of life and social sciences, the majority of scientific publications, legislations, and sector guidelines have, so far, mainly focused on the technical, hazard-oriented facet of MFSRG and less on its social, human-oriented domains. To address this discrepancy, the present paper has identified the key social dimensions that are currently underdeveloped and usually insufficiently included in MFSRG activities by means of a comprehensive literature review.

Key findings and conclusions

A framework integrating the social risk governance dimensions with its well-known technical domains was adopted and tailored to the specific context of microbial food safety risks. This overarching framework aims to improve stakeholder trust in the food system by assisting food practitioners, academia, and (non-)governmental organisations in the practical implementation of a life and social sciences integrated MFSRG approach. Active engagement of stakeholders in all MFSRG activities, the need for collaborative efforts between life and social sciences, and the crucial role of concern assessment are stressed.
背景微生物食品安全风险治理(MFSRG)是一个系统的、持续的多方利益相关者过程,旨在确保社会中高水平的微生物食品安全,并在食品系统中涉及的所有利益相关者群体之间建立和保持信任与理解。只有以一致和标准化的方式收集风险评估数据以及有关所有相关利益群体的利益和关切的社会数据,并在随后用于风险管理和沟通时,MFSRG 才能有效。范围和方法尽管全球食品安全当局、政策制定者、食品从业者和学术界都认识到了整合生命科学和社会科学的MFSRG方法的重要性,但迄今为止,大多数科学出版物、立法和部门指南都主要关注MFSRG的技术、危害导向方面,而较少关注其社会、人文导向领域。为解决这一差异,本文通过全面的文献综述,确定了目前发展不足且通常未被充分纳入食品安全风险治理活动的关键社会层面。这一总体框架旨在通过协助食品从业人员、学术界和(非)政府组织实际实施生命科学和社会科学相结合的 MFSRG 方法,提高利益相关者对食品系统的信任。强调了利益相关者积极参与所有 MFSRG 活动、生命科学和社会科学合作的必要性,以及关切评估的关键作用。
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引用次数: 0
Trends in the valorization of native Amazon palm trees as sources of bioactive lipids for use as functional ingredients 亚马逊原生棕榈树作为生物活性脂质来源用于功能性成分的价值化趋势
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-08 DOI: 10.1016/j.tifs.2024.104777
Stephanie Dias Soares , Adriana de Souza Lima , Cynthia Tereza Corrêa da Silva Miranda , Iramaia Angélica Neri Numa , Gláucia Maria Pastore

Background

Amazon palm tree fruits have been reported to have natural bioactives. These fruits are rich in oleic acid, tocopherols, sterols, and carotenoids and other bioactive compounds that provide health-promoting properties. The discovery and exploration of plant sources rich in bioactive lipids may provide insights into new alternatives to supply the population and industrial demand for nutritious and health-promoting ingredients.

Scope and approach

This review offered a comprehensive recent research on the bioactive lipid composition of Açaí (Euterpe oleracea), bacaba (Oenocarpus bacaba), buriti (Mauritia flexuosa), peach palm (Bactris gasipaes), and tucumã (Astrocaryum vulgare) and their biological activities. Furthermore, we also discussed recent oil extraction methods and how these products have been used as a functional ingredient in product development by industries. Açaí was selected due to its high commercial relevance, whereas bacaba, buriti, pupunha, and tucumã were included as underutilized species commonly used by Amazonian populations.

Key findings and conclusions

Several studies have reported that Amazon fruit oils have a varied composition of bioactive lipids, which can be influenced by the specie and extraction method. In addition, the parameters and conditions of each extraction also directly impact these compounds. Furthermore, although relatively scarce, studies have reported the promising biological activities of the lipophilic compounds of these palm tree fruits, although there are no studies in humans. The studies show the applicability of these compounds as functional ingredients, demonstrating the innovative potential for application in the food, nutraceutical, and cosmetic industries.
背景据报道,亚马逊棕榈树果实含有天然生物活性物质。这些果实富含油酸、生育酚、甾醇、类胡萝卜素和其他生物活性化合物,具有促进健康的特性。对富含生物活性脂质的植物来源的发现和探索可为开发新的替代品提供见解,从而满足人们和工业对营养和促进健康成分的需求。范围和方法本综述全面介绍了近期对阿萨伊(Euterpe oleracea)、巴卡巴(Oenocarpus bacaba)、布里蒂(Mauritia flexuosa)、桃掌(Bactris gasipaes)和土库马(Astrocaryum vulgare)的生物活性脂质成分及其生物活性的研究。此外,我们还讨论了最新的榨油方法,以及这些产品如何被工业界用作产品开发的功能性成分。之所以选择阿萨伊是因为它具有高度的商业相关性,而巴卡巴(bacaba)、布里蒂(buriti)、普蓬哈(pupunha)和图库马(tucumã)则是亚马逊人常用的未被充分利用的物种。此外,每次萃取的参数和条件也会直接影响这些化合物。此外,尽管相对较少,但已有研究报告称这些棕榈树果实的亲脂性化合物具有良好的生物活性,不过目前还没有针对人类的研究。这些研究表明了这些化合物作为功能性成分的适用性,展示了其在食品、保健品和化妆品行业应用的创新潜力。
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引用次数: 0
A Se-hyperaccumulating plant Cardamine violifolia: From its nutritional value to potential applications in foods 一种硒超积累植物 Cardamine violifolia:从营养价值到食品中的潜在应用
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-08 DOI: 10.1016/j.tifs.2024.104781
Li Wang , Shuyi Li , Feifei Wang , Na Zhang , Xu Chen , Xuehua Wang , Jiangling He , Chen Cheng , Zhenzhou Zhu

Background

Cardamine violifolia, a Se hyperaccumulating plant distributed in the Wuling mountainous region of China, has garnered attention for its exceptional ability to accumulate Se, particularly in organic forms, making it a promising candidate for dietary Se supplementation. Recognizing this potential, the National Health Commission of China authorized it as a new food raw material in March 2021. However, limited research data on this plant has still impeded its full utilization.

Scope and approach

This review aims to comprehensively compile information from published reports on C. violifolia, summarizing its nutritional composition, Se speciation, bioactive properties, and highlighting its potential applications in food supply chain. Additionally, it addresses the research gaps surrounding this Se hyperaccumulating plant and provides suggestions for further research.

Key findings and conclusions

C. violifolia emerges as a plant with a well-balanced nutritional profile and a rich array of bioactive compounds. Its unique ability to convert external inorganic Se into distinct organic forms, notably selenolanthionine, positions it as a distinctive dietary Se supplement with diverse biological activities, including antioxidative, immunoregulatory, and anti-inflammatory effects, etc. Recent evidence suggests that C. violifolia holds promise for direct human nutrition applications or indirect benefits through the production of Se-enriched high-quality animal-derived foods. However, further comprehensive research is essential to support the effective integration of C. violifolia into the food supply chain, particularly concerning the potential edible risks associated with its primary Se species, selenolanthionine, and its potential metabolites, both within the human body and indirectly from farm animals.
背景卡达明-小叶紫檀(BackgroundCardamine violifolia)是分布在中国武陵山区的一种硒高积累植物,因其特殊的硒积累能力而备受关注,尤其是以有机形式积累,使其成为膳食硒补充剂的一个有前途的候选品种。由于认识到这一潜力,中国国家卫生委员会于 2021 年 3 月将其批准为一种新的食品原料。范围和方法本综述旨在全面梳理已发表的关于 C. violifolia 的报告信息,总结其营养成分、Se 标示、生物活性特性,并强调其在食品供应链中的潜在应用。主要发现和结论小苍兰是一种营养成分均衡、生物活性化合物丰富的植物。它具有将外界无机硒转化为独特有机形式(特别是硒黄嘌呤)的独特能力,使其成为一种独特的硒膳食补充剂,具有多种生物活性,包括抗氧化、免疫调节和抗炎作用等。最近的证据表明,C. violifolia 有望直接应用于人类营养,或通过生产富含 Se 的优质动物源食品间接获益。然而,进一步的综合研究对于支持将 C. violifolia 有效融入食品供应链至关重要,特别是关于其主要 Se 物种硒黄嘌呤及其潜在代谢物在人体内和间接从农场动物体内产生的潜在食用风险。
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引用次数: 0
Producing food from CO2 using microorganisms: Lots to do, little to lose! 利用微生物从二氧化碳中生产食物:任重而道远
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-06 DOI: 10.1016/j.tifs.2024.104778
Steven Minden , Alexander Grünberger , Ulrike van der Schaaf , Anke Neumann , Christine Rösch , Jörg Sauer , Anne-Kristin Kaster

Background

For the first time, the recently held United Nations Climate Change Conference (COP 28) involved a summit leaders’ declaration to include global food production in their action plan to fight climate change. Reducing meat consumption is the primary way to take this fight seriously, nevertheless the global supply of people with high-quality protein is one of the central challenges of the coming decades. Producing microbial protein from CO2 (aka single cell protein, SCP) offers the unique opportunity to recycle both, CO2 from the atmosphere and food side streams, into consumer-oriented foods - an innovative path to a zero-carbon footprint diet.

Scope and approach

The importance of utilizing CO2 as a substrate for microbial food production is underscored by comparative environmental footprint studies of various protein sources. This commentary systematically discusses the opportunities and technical challenges in realizing this vision.

Key findings and conclusions

The herein proposed acetate-based CO2-to-food framework carries the potential to decrease the environmental footprint of food production by several orders of magnitude in terms of greenhouse gas emission, water, and land usage. While all relevant process steps are already advanced to a high technological readiness level, the key engineering challenges encompass their consolidation to a circular process, scale-up and product formulation.
背景在最近举行的联合国气候变化大会(COP 28)上,各国领导人首次宣布将全球粮食生产纳入应对气候变化的行动计划。减少肉类消费是认真对待这一问题的主要途径,然而,为全球人民提供优质蛋白质是未来几十年的核心挑战之一。利用二氧化碳生产微生物蛋白质(又称单细胞蛋白质,SCP)提供了一个独特的机会,可将大气中的二氧化碳和食物侧流回收利用到面向消费者的食品中,这是一条实现零碳足迹饮食的创新之路。范围和方法各种蛋白质来源的环境足迹比较研究强调了利用二氧化碳作为微生物食品生产基质的重要性。本评论系统地讨论了实现这一愿景的机遇和技术挑战。主要发现和结论本文提出的基于醋酸纤维的二氧化碳转化为食品的框架,在温室气体排放、水和土地使用方面,有可能将食品生产的环境足迹减少几个数量级。虽然所有相关工艺步骤都已达到较高的技术准备水平,但关键的工程挑战包括将其整合为循环工艺、扩大规模和产品配方。
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引用次数: 0
Stimulation of non-shivering thermogenesis by bioactive compounds: A focus on gut microbiota-mediated mechanisms 生物活性化合物刺激非颤抖性产热:关注肠道微生物群介导的机制
IF 15.1 1区 农林科学 Q1 FOOD SCIENCE & TECHNOLOGY Pub Date : 2024-11-06 DOI: 10.1016/j.tifs.2024.104779
Yasmin Alhamoud , Tuerxunayi Abudumijiti , Junhao Wu , Lu Lu , Minjie Zhao , Xiaohu Luo , Fengqin Feng , Jing Wang

Background

Non-shivering thermogenesis (NST), an essential mechanism for heat generation without shivering, primarily involves brown and beige fats. This process enhances thermal comfort and holds the potential for combating obesity and its metabolic consequences. Bioactive compounds such as polyphenols, polysaccharides, terpenoids, and alkaloids— are known for their thermogenic effects. Despite their potential, the systemic bioavailability of these bioactive compounds is notably limited, a challenge primarily mitigated by the metabolic functions of the gut microbiota (GM), which enhances their absorption and effectiveness.

Scope and approach

This comprehensive review highlights the thermogenic potential of bioactive compounds and the pivotal role of GM and GM-derived metabolites in NST. It also discusses recent advances in understanding how bioactive compounds interact with GM to regulate NST, elucidating the underlying mechanisms that influence thermogenic processes and energy expenditure. The current challenges and future opportunities are addressed to advance the understanding in this field.

Key findings and conclusions

GM plays an indispensable role in NST-induced improvements in adipose tissue metabolism and energy expenditure. Critical GM metabolites, including short-chain fatty acids (SCFAs), bile acids (BAs), and branched-chain amino acids (BCAAs), serve as key mediators in this process. Bioactive compounds, through modulation of GM composition, significantly influence SCFAs production and BAs metabolism, thereby activating NST pathways. Thus, harnessing the bioactive compound-GM axis represents a novel, promising dietary intervention to potentiate NST, enhance metabolic flexibility, and offer therapeutic potential in the prevention and treatment of obesity.
背景非颤抖性产热(NST)是一种无需颤抖即可产生热量的重要机制,主要涉及棕色和米色脂肪。这一过程可提高热舒适度,并具有防治肥胖症及其代谢后果的潜力。众所周知,多酚、多糖、萜类和生物碱等生物活性化合物具有生热作用。尽管具有潜力,但这些生物活性化合物的全身生物利用度明显有限,而肠道微生物群(GM)的新陈代谢功能主要缓解了这一挑战,因为肠道微生物群能增强生物活性化合物的吸收和有效性。它还讨论了在了解生物活性化合物如何与转基因相互作用以调节 NST 方面的最新进展,阐明了影响生热过程和能量消耗的潜在机制。主要发现和结论转基因在 NST 诱导的脂肪组织代谢和能量消耗改善过程中发挥着不可或缺的作用。包括短链脂肪酸 (SCFA)、胆汁酸 (BA) 和支链氨基酸 (BCAA) 在内的重要转基因代谢物是这一过程中的关键介质。生物活性化合物通过调节基因改造成分,可显著影响 SCFAs 的产生和 BAs 的代谢,从而激活 NST 途径。因此,利用生物活性化合物-转基因轴是一种新颖、有前景的膳食干预措施,可增强 NST、提高代谢灵活性,并为预防和治疗肥胖症提供治疗潜力。
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引用次数: 0
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Trends in Food Science & Technology
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