半导体器件不断向更小特征尺寸、更复杂材料体系和更薄膜层结构发展，器件性能与可靠性越来越受到界面结构、元素扩散、掺杂分布、缺陷及纳米尺度化学组成的影响。诺法材料可结合 FIB-SEM、TEM、APT、EDS、EBSD 等先进表征技术，从器件截面与微纳结构观察，到纳米尺度晶体结构和原子尺度元素分布，对半导体材料及器件中的关键区域进行多尺度分析，为工艺优化、材料研发和失效分析提供实验依据。

Semiconductor devices continue to evolve toward smaller feature sizes, more complex material systems, and thinner film structures. Device performance and reliability are increasingly affected by interface structures, elemental diffusion, doping distribution, defects, and nanoscale chemical composition. Nova Scientific can combine advanced characterization techniques such as FIB-SEM, TEM, APT, EDS, and EBSD to perform multiscale analysis of critical regions in semiconductor materials and devices, from device cross-section and micro/nanostructure observation to nanoscale crystal structure and atomic-scale elemental distribution, providing experimental evidence for process optimization, materials research and development, and failure analysis.

针对器件结构与局部区域分析，可利用 FIB-SEM 对晶圆、薄膜及器件结构进行精准定位、截面加工和定点制样，实现对特定功能层、界面、缺陷及失效区域的靶向分析。结合 SEM 形貌观察和 EDS 元素分析，可快速获取截面结构及元素分布，为后续 TEM 或 APT 分析提供可靠的目标区域。

For device structures and local region analysis, FIB-SEM enables precise positioning, cross-sectional processing, and site-specific sampling of wafers, thin films, and device structures, allowing targeted analysis of specific functional layers, interfaces, defects, and failure regions. Combined with SEM morphology and EDS elemental analysis, cross-sectional structures and elemental distributions can be rapidly acquired, providing reliable target regions for subsequent TEM or APT analysis.

针对薄膜、界面及纳米结构表征，可利用 TEM/STEM 对半导体材料中的超薄膜层、异质界面、纳米结构及晶体缺陷进行高分辨观察，并结合 SAED、EDS 等手段分析晶体结构、元素组成及界面关系。对于传统二维表征难以进一步解析的纳米尺度化学变化，可结合 APT 对关键区域进行三维原子尺度分析。

For thin films, interfaces, and nanostructures, TEM/STEM enables high-resolution observation of ultrathin layers, heterointerfaces, nanostructures, and crystal defects in semiconductor materials, with SAED, EDS, and other techniques used to analyze crystal structure, elemental composition, and interfacial relationships. For nanoscale chemical changes beyond the reach of conventional 2D characterization, APT can be applied for 3D atomic-scale analysis of critical regions.

针对掺杂、元素扩散与界面化学问题，APT能够提供近原子尺度的三维元素分布信息，可用于分析掺杂元素在材料内部的空间分布、扩散行为以及不同材料层之间的元素迁移。通过三维重构、浓度剖面及 Proxigram 等分析，可以进一步定量研究薄膜/基体界面、异质结及多层结构中的元素分配和化学梯度，为半导体工艺中的扩散控制与界面优化提供数据支持。

For doping, elemental diffusion, and interfacial chemistry, APT provides near-atomic-scale 3D elemental distribution information, enabling analysis of dopant spatial distribution, diffusion behavior, and elemental migration between different material layers. Elemental partitioning and chemical gradients at thin film/substrate interfaces, heterojunctions, and multilayer structures can be quantitatively studied through 3D reconstruction, concentration profiles, and proxigram analysis, providing data support for diffusion control and interface optimization in semiconductor processing.

针对先进器件中的纳米尺度缺陷与失效问题，可结合 FIB 的精准定位与截面制样能力，对裂纹、空洞、界面异常、局部污染及其他失效区域进行靶向取样，再通过 TEM、EDS 及 APT 从不同尺度分析缺陷周围的结构和化学变化。通过建立“失效位置—局部结构—元素分布—界面化学”之间的关联，可进一步追溯潜在失效机制。

For nanoscale defects and failures in advanced devices, FIB-based precise positioning and cross-sectional sampling enable targeted sampling of cracks, pores, interfacial anomalies, local contamination, and other failure regions. TEM, EDS, and APT then analyze structural and chemical changes around the defects across multiple scales. By linking "failure location—local structure—elemental distribution—interfacial chemistry," potential failure mechanisms can be further traced.

针对新型半导体材料与先进工艺研发，诺法材料可针对薄膜材料、异质结构、扩散阻挡层、金属互连及复杂界面等研究对象，提供从FIB精准制样 → TEM结构表征 → APT三维化学分析的协同表征方案。通过不同技术之间的信息互补，将微观形貌、晶体结构与原子尺度化学组成结合起来，为材料体系筛选、工艺参数优化及器件可靠性研究提供实验依据。

For new semiconductor materials and advanced process development, Nova Scientific offers collaborative characterization workflows — FIB precise sample preparation → TEM structural characterization → APT 3D chemical analysis — targeting thin films, heterostructures, diffusion barrier layers, metal interconnects, and complex interfaces. By integrating complementary information from different techniques, microscopic morphology, crystal structure, and atomic-scale chemical composition are linked, providing experimental evidence for material screening, process optimization, and device reliability studies.