生命科学研究

生命科学研究

生命科学研究

在生命科学研究中心,您可以掌握最新的关于先进显微镜、成像技术、电镜样品制备和图像分析的前沿应用和创新,涵盖的主题包括细胞生物学、神经科学和癌症研究。希望在这里可以帮助您提升研究能力和精进显微镜在各个科学领域实际应用,并了解徕卡如何通过精确的可视化、图像解读和推进研究进展来赋能您的工作。
Multiplexed Cell DIVE imaging of Adult Human Alzheimer’s Brain Tissue labelled with 15 antibodies targeted towards markers specific to astrocytes (GFAP, S100B), microglia (TMEM119, IBA1), and Alzheimer’s-associated markers (β-amyloid and p-Tau217).

Explore Alzheimer's Spatial Proteome with Big Data

Alzheimer's disease, a genetic and sporadic neurodegenerative condition, leads to cognitive decline in mid to late life, marked by β-amyloid plaques and tau tangles. With limited treatment options,…
[Translate to chinese:] Colon adenocarcinoma and normal colon at the tumor margin. 13 biomarkers shown including Cadherin, CD3, CD4, CD8, CD20, CD31, CD45, Collagen, Caspase 9, BCL2, Beta-Catenin, Vimentin, and Smooth Muscle Actin.

Uncover the Hidden Complexity of Colon Cancer with Big Data

Colorectal cancer poses a significant health burden. While surgery is effective initially, some patients develop recurrent secondary disease with poor prognosis, necessitating advanced therapies like…
[Translate to chinese:] Pancreatic Ductal Adenocarcinoma with 11 Aerobic Glycolysis/Warburg Effect biomarkers shown – BCAT, Glut1, HK2, HTR2B, LDHA, NaKATPase, PCAD, PCK26, PKM2, SMA1, and Vimentin.

Dive into Pancreatic Cancer Research with Big Data

Pancreatic cancer, with a mortality rate near 40%, is challenging to treat due to its proximity to major organs. This story explores the complex biology of pancreatic ductal adenocarcinoma (PDAC),…
Blood vessel system of a zebrafish larvae.

Overcoming Challenges with Microscopy when Imaging Moving Zebrafish Larvae

Zebrafish is a valuable model organism with many beneficial traits. However, imaging a full organism poses challenges as it is not stationary. Here, this case study shows how zebrafish larvae can be…
[Translate to chinese:] Block-face created by automatic trimming under fluorescence. Mammalian cells of interest, stained with CellTrackerTM Green are visualized within the block-face using the UC Enuity equipped with the stereo microscope M205 FA. In the background a carbon finder grid in black is visible. All samples in the article are created by Felix Gaedke, PhD, CECAD, Cologne, Germany.

如何在块面中自动获取感兴趣的荧光细胞

本文介绍了使用超薄切片超薄切片机自动修整修块功能,获取树脂块面中带有荧光信号的细胞结构。我们展示了如何使用配置有体视显微镜 M205 FA 的超薄切片超薄切片机 UC Enuity ,来识别感兴趣的荧光细胞,如何自动修整包含细胞的块面,以及如何在切片中观察细胞而无需转移到外部显微镜。
Leitz Laborlux: Tartaric acids, polarization contrast

偏振光显微观察

偏光显微镜通常应用于材料科学和地质学领域,根据矿物的折射特性和颜色来识别矿物。在生物学中,偏光显微镜通常用于晶体等双折射结构的识别或成像,或用于植物细胞壁中纤维素和淀粉粒的成像。
Image of a 12-μm thick brain section, which was stained with Toluidin blue, before dissection. It was taken with a microscope using a 63x objective.

An Introduction to Laser Microdissection

The heterogeneity of histological and biological specimens often requires isolation of specific single cells or cell groups from surrounding tissue before molecular biology analysis can be carried…
[Translate to chinese:] Mouse brain (left) microdissected with a 10x objective (upper right). Inspection of the collection device (lower right).

激光微切割(LMD)促进的分子生物学分析

使用激光微切割(LMD)提取生物分子、蛋白质、核酸、脂质和染色体,以及提取和操作细胞和组织,可以深入了解基因和蛋白质的功能。它在神经生物学、免疫学、发育生物学、细胞生物学和法医学等多个领域有广泛应用,例如癌症和疾病研究、基因改造、分子病理学和生物学。LMD 也有助于研究蛋白质功能、分子机制及其在转导途径中的相互作用。
[Translate to chinese:] Image of murine dopaminergic neurons which have been marked for laser microdissection (LMD).

利用激光显微切割(LMD)在空间背景下分离神经元

在阿尔茨海默病之后,帕金森病是第二常见的进行性神经退行性疾病。在首发症状出现之前,中脑中高达70%的多巴胺释放神经元已经死亡。本文描述了如何使用现代激光显微切割(LMD)方法帮助解决帕金森病之谜。研究涉及在空间背景下分离和分析神经元。这些细胞来自帕金森病患者的死后黑质组织样本,以便深入了解该病的分子机制。
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