FE10341 Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (001) 5x5x0.5 mm

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (001) 5x5x0.5 mm Description

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (001) 5x5x0.5 mm consists of the magnetite phase (Fe3O4) and features an engineered defect profile within its crystal lattice. The specified dimensions of 5 mm x 5 mm with a thickness of 0.5 mm ensure compatibility with standardised laboratory setups for surface and catalytic studies. The inherent defect sites facilitate local studies of catalytic behaviour and surface reactivity, offering a practical platform for probing material performance under varied conditions.

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (001) 5x5x0.5 mm Applications

Materials Research
- Utilised as a calibration reference in nanoscale imaging systems to assess defect-induced contrast variations by leveraging the substrate's inherent structural imperfections.
- Applied as a test platform in studies of magnetic behaviour to evaluate the influence of crystalline defects on electron spin interactions.

Catalytic Studies and Surface Analysis
- Used as a core component in catalytic reaction experiments to monitor reaction rates by leveraging its defined surface defect density.
- Utilised as a standard substrate in surface chemistry setups to quantify the impact of defect sites on reaction efficiency.

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (001) 5x5x0.5 mm Packing

The substrate is packaged in a cushioned, anti-static container lined with foam inserts to protect against mechanical damage and contamination. It is stored in a dry, temperature-controlled facility to prevent moisture uptake and chemical alteration. Custom packaging options, such as sealed pouches or individually labelled compartments, may be arranged to accommodate specific storage and transport requirements.

Frequently Asked Questions

Q1: How does the defect structure affect the performance of the iron oxide substrate in analytical applications?
A1: The defect structure creates local variations in surface reactivity, which can be critical for studies on catalytic mechanisms and magnetic behaviour. The substrate’s native imperfections facilitate investigations into reaction kinetics and material properties in controlled experimental setups.

Q2: What specific characterisation methods are used to verify the substrate’s defect profile?
A2: Scanning electron microscopy (SEM) and X-ray diffraction (XRD) are frequently employed to analyse surface topology and crystallographic orientation. These methods provide detailed images and quantitative data on defect density and distribution to support material validation processes.

Q3: Can the substrate be integrated with standard laboratory equipment for surface analysis?
A3: Yes, the 5x5x0.5 mm dimensions are compatible with typical sample holders in various characterisation tools. The defined defect pattern assists in correlating structural anomalies with experimental outputs, facilitating accurate and reproducible measurements.

Additional Information

The study of iron oxides, particularly magnetite (Fe3O4), is central to advances in materials science and catalysis. The presence of defects within the crystalline structure often plays a significant role in altering magnetic and catalytic behaviours. Researchers focusing on surface phenomena benefit from substrates that inherently reveal variations in reactivity due to such defects.

In a broader context, substrates like this one offer a measurable platform for investigating the interplay between crystal defects and material performance. These insights contribute to the development of improved catalytic systems and surface-active materials across various research and industrial applications.