Diamond Crystal
Diamond Crystal - Related Videos
07:08
Crystallization and In Situ Room Temperature Data Collection Using the Crystallization Facility at Harwell and Beamline VMXi, Diamond Light Source
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Cited by 4 •
2024
We present a protocol for the crystallization of proteins using the crystallization facility in the Research Complex at Harwell and subsequent in situ X-ray crystallographic data collection from crystals within the plates at Diamond's Versatile Macromolecular Crystallography in situ (VMXi) beamline. We describe sample requirements, crystallization protocols, and data collection guidelines.
07:33
Physical Properties Of Minerals I: Crystals and Cleavage
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2023
Source: Laboratory of Alan Lester - University of Colorado Boulder The physical properties of minerals comprise various measurable and discernible attributes, including color, streak, magnetic properties, hardness, crystal growth form, and crystal cleavage. Each of these properties are mineral-specific, and they are fundamentally related to a particular mineral’s chemical make-up and atomic structure. This experiment examines two properties that stem primarily from symmetric repetition of...
07:39
Protein Crystallization
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2023
Protein crystallization, obtaining a solid lattice of biomolecules, elucidates protein structure and enables the study of protein function. Crystallization involves drying purified protein under a combination of many factors, including pH, temperature, ionic strength, and protein concentration. Once crystals are obtained, the protein structure can be elucidated by x-ray diffraction and computation of an electron density model. This video introduces protein crystallization and shows a general...
13:38
Synthesis of Biocompatible Liquid Crystal Elastomer Foams as Cell Scaffolds for 3D Spatial Cell Cultures
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Cited by 9 •
2017
This study presents a methodology to prepare 3D, biodegradable, foam-like cell scaffolds based on biocompatible side-chain liquid crystal elastomers (LCEs). Confocal microscopy experiments show that foam-like LCEs allow for cell attachment, proliferation, and the spontaneous alignment of C2C12s myoblasts.
07:48
An Externally-Heated Diamond Anvil Cell for Synthesis and Single-Crystal Elasticity Determination of Ice-VII at High Pressure-Temperature Conditions
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Cited by 19 •
2020
This work focuses on the standard protocol for preparing the externally-heated diamond anvil cell (EHDAC) for generating high-pressure and high-temperature (HPHT) conditions. The EHDAC is employed to investigate materials in Earth and planetary interiors under extreme conditions, which can be also used in solid state physics and chemistry studies.
FAQs
The tetrahedral bonding network distributes each carbon atom’s four covalent connections throughout the crystal, creating a rigid structure that resists deformation. This rigidity accounts for diamond’s exceptional hardness, while the ordered lattice supports high thermal conductivity. The same bonding arrangement is associated with electrical insulating behavior, showing how atomic structure determines measurable material properties.
Pressure and temperature are central to understanding diamond crystal phase stability because they influence which carbon structures remain favored under different conditions. Chemistry studies these variables alongside bonding and lattice arrangement to explain how diamond forms or persists in demanding environments. This context is important for interpreting diamond behavior in high-pressure and high-temperature research.
Defects are departures from the ideal crystal lattice, and their effects can differ from those of the perfectly ordered structure. In diamond, researchers can study or engineer such defects to connect local atomic irregularities with useful functions. This approach supports specialized sensing and quantum technologies, where controlled imperfections provide capabilities beyond hardness, conductivity, or insulation alone.
Diamond combines high thermal conductivity with electrical insulating behavior because these properties describe different responses of the crystal. Its highly ordered, strongly bonded lattice supports efficient heat transfer, while the material does not behave as an electrical conductor. This combination makes diamond scientifically distinctive and valuable where thermal management is needed without ordinary electrical conduction.
A chemistry-focused investigation considers the carbon bonding pattern, three-dimensional lattice order, defects, and phase stability under high pressure and temperature. Examining these features links atomic-scale structure to hardness, thermal conductivity, insulation, and engineered functions. The resulting framework helps researchers interpret both the fundamental chemistry of diamond and its performance in specialized materials.
Diamond crystals support cutting and polishing tools because of their exceptional hardness, while their high thermal conductivity enables heat-management materials. Their optical properties support optical components, and their insulating behavior contributes to specialized electronic devices. Engineered defects extend these uses into sensing and quantum technologies, connecting crystal chemistry with practical and emerging applications.