Glial Biologist's Guide to Mass Spectrometry-Based Lipidomics: A Tutorial From Sample Preparation to Data Analysis

IF 5.4 2区 医学 Q1 NEUROSCIENCES Glia Pub Date : 2025-01-03 DOI:10.1002/glia.24665
Caitlin E. Randolph, Katherine A. Walker, Ruilin Yu, Connor Beveridge, Palak Manchanda, Gaurav Chopra
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Abstract

Neurological diseases are associated with disruptions in the brain lipidome that are becoming central to disease pathogenesis. Traditionally perceived as static structural support in membranes, lipids are now known to be actively involved in cellular signaling, energy metabolism, and other cellular activities involving membrane curvature, fluidity, fusion or fission. Glia are critical in the development, health, and function of the brain, and glial regulation plays a major role in disease. The major pathways of glial dysregulation related to function are associated with downstream products of metabolism including lipids. Taking advantage of significant innovations and technical advancements in instrumentation, lipidomics has emerged as a popular omics discipline, serving as the prevailing approach to comprehensively define metabolic alterations associated with organismal development, damage or disease. A key technological platform for lipidomics studies is mass spectrometry (MS), as it affords large-scale profiling of complex biological samples. However, as MS-based techniques are often refined and advanced, the relative comfort level among biologists with this instrumentation has not followed suit. In this review, we aim to highlight the importance of the study of glial lipids and to provide a concise record of best practices and steps for MS-based lipidomics. Specifically, we outline procedures for glia lipidomics workflows ranging from sample collection and extraction to mass spectrometric analysis to data interpretation. To ensure these approaches are more accessible, this tutorial aims to familiarize glia biologists with sample handling and analysis techniques for MS-based lipidomics, and to guide non-experts toward generating high quality lipidomics data.

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胶质生物学家的指南质谱为基础的脂质组学:教程从样品制备到数据分析。
神经系统疾病与脑脂质组的破坏有关,这正在成为疾病发病机制的核心。传统上,脂质被认为是膜中的静态结构支撑,现在已知脂质积极参与细胞信号传导、能量代谢和其他涉及膜曲率、流动性、融合或裂变的细胞活动。神经胶质细胞对大脑的发育、健康和功能至关重要,神经胶质细胞的调节在疾病中起着重要作用。神经胶质功能失调的主要途径与下游代谢产物(包括脂质)有关。利用仪器的重大创新和技术进步,脂质组学已经成为一门流行的组学学科,作为全面定义与生物体发育、损伤或疾病相关的代谢改变的主流方法。质谱(MS)是脂质组学研究的一个关键技术平台,因为它提供了复杂生物样品的大规模分析。然而,由于基于质谱的技术经常被改进和先进,生物学家对这种仪器的相对舒适度并没有随之提高。在这篇综述中,我们的目的是强调胶质脂质研究的重要性,并提供一个简明的记录,以ms为基础的脂质组学的最佳实践和步骤。具体来说,我们概述了胶质脂组学工作流程的程序,从样品收集和提取到质谱分析到数据解释。为了确保这些方法更容易获得,本教程旨在使神经胶质生物学家熟悉基于质谱的脂质组学的样品处理和分析技术,并指导非专家生成高质量的脂质组学数据。
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来源期刊
Glia
Glia 医学-神经科学
CiteScore
13.10
自引率
4.80%
发文量
162
审稿时长
3-8 weeks
期刊介绍: GLIA is a peer-reviewed journal, which publishes articles dealing with all aspects of glial structure and function. This includes all aspects of glial cell biology in health and disease.
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