FE10339 Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (111) 10x10x0.5 mm

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (111) 10x10x0.5 mm Description

The product is a crystalline iron oxide substrate predominantly composed of Fe3O4 with an intentional defect structure along the (111) plane. The 10x10 mm size and 0.5 mm thickness ensure compatibility with standard analytical equipment in material science laboratories. The defective nature promotes localized active sites, facilitating studies in catalysis and magnetic property modulation. Its natural sourcing supports investigations into intrinsic material behaviour under varied experimental conditions.

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (111) 10x10x0.5 mm Applications

Electronics and Sensor Research
- Used as a base layer in magnetic sensors to achieve altered magnetic responses by leveraging its defective (111) structure.
- Applied in spintronics trials to modulate electron transport properties by taking advantage of defect-induced domain variations.

Catalysis and Chemical Processing
- Utilised as a catalyst support in heterogeneous reaction systems to promote increased active site density through controlled defects.
- Employed in surface reaction studies to evaluate adsorption characteristics on naturally sourced iron oxide substrates.

Iron Oxide Fe3O4 Natural Source Crystal Substrate with Defects (111) 10x10x0.5 mm Packing

The substrate is packaged within anti-static, cushioned holders that mitigate mechanical impacts during transit. Each unit is placed in a sealed, inert atmosphere pouch to prevent surface contamination. Storage guidelines recommend a dry, temperature-stable environment to preserve the substrate's physical properties. Custom packaging options, including individual compartmentalisation and labelling, are available according to customer specifications.

Frequently Asked Questions

Q1: What processes are used to control the defect structure in the substrate?
A1: The production process utilises controlled thermal treatments and microscopic surface analysis to quantify and maintain defect density. Techniques such as scanning electron microscopy are employed to ensure the defect distribution meets experimental criteria.

Q2: How does the (111) orientation impact material performance in research applications?
A2: The (111) crystallographic orientation influences magnetic domain alignment and catalytically active sites. This specific orientation enables detailed studies on surface reactions and magnetic property tuning in research environments.

Q3: What storage conditions are recommended for maintaining substrate integrity?
A3: The substrate should be stored in a dry, temperature-controlled environment with minimal exposure to contaminants. Using anti-static packaging and inert atmosphere pouches helps preserve the surface characteristics and defect profile.

Additional Information

Understanding the intrinsic properties of iron oxide, especially magnetite (Fe3O4), is crucial in various research fields, including catalysis and magnetic sensor developments. The naturally occurring defects can significantly alter the electronic and magnetic behaviours of the substrate, providing valuable insights into structure-property relationships.

In materials science, a detailed analysis of defect structures enhances the understanding of reaction kinetics and surface interactions. This substrate offers a model system for evaluating the impact of crystallographic imperfections on material performance, underpinning advances in both fundamental research and applied technologies.