IntBIO: Collaborative Research: Integrating nanobiotechnologies to understand the role of nitro-oxidative stress in the coral-dinoflagellate mutualistic symbiosis dynamics
IntBIO:合作研究:整合纳米生物技术来了解硝基氧化应激在珊瑚-甲藻互利共生动态中的作用
基本信息
- 批准号:2316389
- 负责人:
- 金额:$ 44.22万
- 依托单位:
- 依托单位国家:美国
- 项目类别:Standard Grant
- 财政年份:2023
- 资助国家:美国
- 起止时间:2023-08-01 至 2026-07-31
- 项目状态:未结题
- 来源:
- 关键词:
项目摘要
Understanding the complex processes that occur inside cells when reef-building corals are exposed to stressful conditions is essential to guiding future conservation efforts and engineering solutions for the survival of coral reefs. This project will focus on the relationship between corals and the microscopic algae living in their tissue, especially the accumulation and exchange of very reactive molecules (known as free-radicals) during periods of stress, which can have damaging effects on cells at high doses. The symbiosis between coral and algae is crucial for coral reef survival. As conditions in Earth’s oceans change, this symbiosis becomes unstable, such that extreme conditions like marine heat waves lead to expulsion of algae from the coral tissue, turning corals white to the naked eye, a condition known as "coral bleaching." This research will use a multidisciplinary approach--combining marine biology, molecular sciences, ecophysiology, physics, nanoengineering, and 3D fabrication--to explore how free-radical concentrations and dynamics within the complex coral-algae symbiosis may contribute to coral bleaching. The scientific training and outreach involved in this project will strive to engage with various groups to promoted integrative multidisciplinary STEM methodology and literacy for tackling complex contemporary challenges.Mass coral bleaching events have increased in frequency and severity. However, the mechanism leading to the breakdown of symbiosis (dysbiosis) is still poorly characterized. The accumulation of free-radicals is understood to be a primary driver of dysbiosis. In this project, researchers will first study the cellular response in isolation and symbiosis of both the coral cells and the dinoflagellate algae cells to create a 3D physical biohybrid coral model. The model will be composed of a hard base mimicking the coral skeleton and bioink combined with coral and algae cells mimicking the coral tissue. This model will allow researchers to study the changes inside the cells and the bioink at high resolution under different conditions, including during stress levels associated with bleaching, according to cell type, cell density and tissue architecture. The characterization toolkit will consist of advanced microscopy, gene expression, metabolomics, nanoprobe measurements, material characterization, computational modeling, 3D printing and 3D bioprinting. Amongst the expected outcomes, researchers anticipate this project will profoundly transform our understanding of free-radical dynamics in symbiotic organisms in relation to the coral tissue microenvironment.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.
了解珊瑚礁建造珊瑚面临压力条件时细胞内部发生的复杂过程对于指导未来的保护工作和工程解决方案至关重要。该项目将重点关注珊瑚与生活在组织中的微观藻类之间的关系,尤其是在压力期间的积累和交换非常反应性分子(称为自由基),这可能会对高剂量的细胞产生破坏性影响。珊瑚和藻类之间的共生对于珊瑚礁存活至关重要。随着地球海洋中的条件的变化,这种共生变得不稳定,使得像海洋热浪这样的极端条件导致藻类从珊瑚组织中驱逐,将珊瑚变成白色的肉眼,这种情况被称为“珊瑚漂白”。这项研究将使用多学科的方法 - 综合海洋生物学,分子科学,生态生理学,物理学,纳米工程和3D制造 - 探索复杂的珊瑚algae符号内的自由基浓度和动力学如何有助于珊瑚的裂变。该项目涉及的科学培训和外展活动将努力与各个群体互动,以促进综合的多学科STEM方法论和识字率,以应对复杂的当代挑战。质量和严重性的质量质量漂白事件增加了。然而,导致共生分解(营养不良)的机制仍然很差。自由基的积累被认为是营养不良的主要驱动力。在该项目中,研究人员将首先研究珊瑚细胞和鞭毛藻细胞的分离和共生中的细胞反应,以创建3D物理生物杂化珊瑚模型。该模型将由模仿珊瑚骨骼和生物互联的坚硬底座以及模仿珊瑚组织的珊瑚和藻类细胞组成。该模型将使研究人员能够根据细胞类型,细胞密度和组织结构在不同条件下(包括在与漂白剂相关的应力水平上)以高分辨率研究细胞内部的变化和生物学。表征工具包将包括先进的显微镜,基因表达,代谢组学,纳米探针测量,材料表征,计算建模,3D打印和3D生物报。在预期的结果中,研究人员预测,该项目将深刻地改变我们对共生组织中与珊瑚组织微环境有关的自由基动态的理解。该奖项反映了NSF的法定任务,并被认为是通过基金会的知识分子和更广泛影响的评估审查审查标准来通过评估来通过评估来支持的。
项目成果
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