徕卡显微系统的显微镜、成像和分析解决方案

我们通过提供突破性的光学和数字化解决方案，赋能客户，洞见未来。175 多年来，我们在生命科学研究、工业、医学、法医学和教育等领域锐意创新，将可视化和分析技术推向更高，助力明智决策、优化工作流程

瞰见未知，同创世界健康与美好。

多元业务提升洞察

医学专业

全方位产品组合赋能眼科、神经外科、耳鼻喉科、整形外科和口腔科等，总有一款能够满足您的需求。

生命科学研究

通过突破分辨率、速度和信息维度的极限，让科学家能够获得前所未有的洞察力，从而推动科学探索，成就生命无限潜能。

工业显微技术

通过以工作流为中心的创新科技，我们提供高质量和易于使用的解决方案，使用户能够在材料研究、产品研发和生产制造方面获得洞察力和投资回报。

Ivesta 3 格林诺夫体视显微镜

如果您可以提高检查效率并以一致的方式工作呢?

对于制造商或供应商来说，提高检查效率是头等大事。使用Ivesta 3格林诺夫立体显微镜，您可以优化目视检查和返工流程，同时获得可靠、一致的结果

图像分析软件

Aivia：人工智能显微成像的未来

Advanced Imaging – DMi8 倒置显微镜

使用 DMi8 倒置显微镜可简化复杂的显微成像工作流程。

们可根据您的研究需求和预算提供量身定制的平台解决方案，助您生成高质量的数据。

阅读我们的最新文章

徕卡显微系统的知识门户网站提供有关显微镜学的科学研究资料和教学材料。网站内容专门面向初学者、经验丰富的从业者和科学家，为他们的日常工作和实验提供支持。

AI Image Analysis for Reliable Defect Detection

AI-based visual inspection with microscopy helps make quality control in industrial environments efficient by reducing manual inspection effort concerning defect detection, classification, and…

An Overview of Artificial Intelligence (AI) and Machine Learning

AI is rapidly changing industrial inspection, quality control, and manufacturing workflows. But not all AI technologies work the same way. From machine learning and deep learning to the newer concept…

Why the Future of Microscopic Inspection Is AI-Assisted, Not Fully Automated

The next wave of QC productivity gains will not come from building more automated inspection lines. Instead, it will come from augmenting millions of inspection decisions that are made manually every…

High-resolution 3D optics [JB19.1]with enhanced depth of field [JB20.1]allow surgeons to clearly identify and safely dissect perforators and perform delicate vessel anastomoses. Mr Dariush Nikkhah. DIEP surgery London.

DIEP Flap Breast Reconstruction: Microsurgical Visualization

DIEP flap breast reconstruction is an autologous microsurgical procedure that depends on precise vessel dissection, anastomosis and perfusion assessment [1]. This article discusses how surgical…

Cryo-confocal fluorescence imaging of the milled lamella on the TEM grid after cryo-FIB preparation. Residual fluorescence signal confirms that the targeted region of interest—containing malaria parasite structures—has been successfully retained during lamella preparation, supporting accurate correlation between cryo-fluorescence microscopy and cryo-electron microscopy workflows.

Fluorescence-Guided Cryo-ET of Malaria Parasites

Correlative cryo workflow with cryo-planing and cryo-fluorescence imaging enables targeted cryo-ET of parasite-rich regions in complex tissue.

Serial Lift-Out workflow for cryo-ET lamella preparation - Schematic illustration of the Serial Lift-Out method applied to a vitrified biological sample (e.g., C. elegans larva) embedded in bulk vitreous ice (blue). Image courtesy: Prof. Dr. Jürgen M. Plitzko - doi.org/10.1038/s41592-023-02113-5.

Cryo-ET Sample Preparation: From Waffle Method to Serial Lift-Out

Cryo-ET sample preparation becomes more demanding when specimens are thicker, larger, or more complex. This webinar brings together four perspectives on how high-pressure freezing can be connected…

Brain organoid labeled with lamin (green) and tubulin (magenta), acquired using Viventis Deep. Courtesy of Akanksha Jain, Treutlein Lab ETH-DBSSE Basel (Switzerland).

如何深入了解类器官和细胞球模型

在本电子书中，您将了解3D细胞培养模型（如类器官和细胞球）成像的关键注意事项。探索创新型显微镜解决方案，来实时记录类器官和细胞球的动态成像过程。

Waffle method lamella preparation and cryo-ET results - Representative workflow and results of lamella preparation from a vitrified C. elegans L1 larva using the waffle method. Image courtesy: Prof. Dr. Jürgen M. Plitzko - doi.org/10.1038/s41592-023-02113-5-

Waffle Method Workflow: From HPF to Cryo-ET Lamellae

Waffle freezing provides an HPF-based route to cryo-ET sample preparation. This workflow guide follows the process from grid and carrier assembly to vitrification, cryo-FIB milling, lamella…

Large field of view (FOV) 2D slices of a 1 mm diameter midbrain neural organoid stained with DAPI (blue, nuclear stain), β-tubulin (green, neuronal stain), and GFAP (red, astrocyte stain). Acquired on THUNDER Imager Cell with 10x magnification. Left: Raw widefield image, Right: THUNDER cleared image. Scale bar 400 μm. Sample courtesy of Dr Tanya Singh, University of Oxford, UK.

Fast, High-Contrast Widefield Imaging of Optically Challenging Samples

Live‑cell imaging of large, complex biological samples often requires large fields of view, sub-cellular resolution, high-sensitivity, and fast acquisition – all while maintaining low illumination…

Hunched working position without a microscope (left) and upright neutral posture achieved with the M320 dental microscope (right).

Dental Loupes vs Microscopes: Exploring Visualization Options in Dentistry

Dental professionals often ask: “Should I use dental loupes or invest in a microscope?” This article explores the key differences between dental microscopes and dental loupes, focusing on…