Raman microscopy combined with chemometric analysis enables precise, non-destructive characterization of cellulose sheets, determining crystallinity, amorphous content, and distinguishing cellulose I and II for optimized quality control.

Raman spectroscopy is an essential tool for the characterization of semiconductors. However, Raman spectroscopy's spatial resolution is limited by the diffraction limit to about 200-300 nanometers, which can be insufficient for analyzing the increasingly smaller features of modern electronic devices.

Understanding how and why batteries degrade over time is essential for improving design and lifecycle performance.
In this webinar, explore HORIBA’s approach to ageing studies using µRaman, GD-OES, and SEI for both in-situ and ex-situ diagnostics. See how we map SEI growth, detect oxide formation, and follow structural changes in electrodes to predict performance decline and inform better material and process choices.

Raman microscopy has become an essential tool for semiconductor research and manufacturing, offering non-destructive, highly precise insights into material properties. From strain analysis to defect detection and full wafer mapping, Raman and photoluminescence microscopies help engineers tackle the complexity introduced by new semiconducting compounds such as wide band gap and two-dimensional materials. In this webinar, we’ll show how Raman analysis supports process optimization and qualification, quality control and process deviation diagnostics.

Join us to learn practical strategies and see real-world examples of Raman & photoluminescence in action.

Crystallinity and material structure are key to maximizing battery energy and power density. HORIBA’s µRaman and QCarbon tools offer direct access to carbon ID/IG ratios and coating uniformity, while GDOES reveal elemental depth profiles. This webinar guides you through essential characterization techniques for both carbon-based and cathode materials, empowering better design and quality control for next-gen batteries.

Surface and interface studies need complementary analytical techniques, like GDOES and Raman, to provide elemental profiles and molecular insights on multilayers of various depths. This webinar illustrates this complementarity by showing selected results on polymeric coatings, anodic films, batteries, coatings on glass and DLC coatings.

TERS 能以纳米级分辨率提供样品的振动信息。获得如此高分辨率的物理化学信息，为材料表征开辟了前所未有的可能性，使研究者能够发现近期才被察觉的新现象。本讲座将通过近场光谱光学的发展历程，系统介绍 TERS 的基本原理。

拉曼光谱是探索皮肤结构、分子组成及活性成分行为的强大工具。最近的离体研究，包括对不同皮肤模型中活性成分的定量分析及化妆品配方在组织内的分布图谱，为分子层面的皮肤相互作用提供了关键洞见。本次网络研讨会将探讨如何将经过验证的离体研究方法应用于体内皮肤分析的复杂性，并提供实现这一转变的实用策略。

本研究重点介绍了颗粒关联拉曼光谱（PCRS）作为一种将颗粒表征与化学成分鉴定相结合的强大技术，能够更深入地了解药物在不同剂型（喷雾剂、片剂、乳膏）中的性能表现。

拉曼光谱技术可实现 4H-SiC 半导体材料的精确无损应力分析。本研究表明拉曼光谱峰位移能反映切割、研磨和化学机械抛光等表面处理工艺引起的应力变化，为电子器件质量控制和工艺优化提供支持。

随着全球聚合物需求增长与污染问题日益突出，从分子层面理解聚合物特性变得至关重要。本次网络研讨会将系统阐述聚合物的基本概念、分析方法，重点展示拉曼光谱技术在物质鉴别、聚合反应监控、结晶度评估、缺陷检测等领域的独特优势，并通过实际案例演示如何将复杂数据转化为可操作的见解。

糖作为一种广泛食用的膳食成分，存在于包括甜点和饮料在内的众多食品中。其生产过程涉及提取、纯化、结晶和干燥等多个环节，每个环节都可能因塑料设备及包装带来潜在的污染风险。本研究展示了使用拉曼显微光谱进行微塑料分析的典型工作流程。

本次网络研讨会将探讨微塑料分析的最新研究进展、食品与空气中污染物监测的现有标准方法，以及 HORIBA 在该领域的前沿技术贡献。

本次网络研讨会将阐述探测器与光谱仪的工作原理，深入解析效率、噪声、etaloning 效应、数值孔径与 étendue、分辨率等核心概念。

探索专为拉曼光谱和拉曼成像量身定制的多元数据分析和化学计量学强大世界。本次网络研讨会将展示我们的先进软件平台 LabSpec 6 如何简化复杂数据解读，使研究人员能够从多维数据集中提取有意义的见解。无论您是化学计量学新手还是经验丰富的专业人士，本次会议都将指导您掌握分析拉曼光谱数据的实用方法，助您自信做出数据驱动的决策。