Geological

Non-destructive mineral separation methods, such as magnetic and gravity separation, efficiently isolate target minerals from samples without altering their structure, preserving sample integrity for accurate analysis and effective resource management using SELFRAG high voltage pulsed power fragmentation technology. 

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Stone cutting and polishing involve shaping raw stone into desired forms and finishing surfaces to enhance appearance and durability. These processes highlight natural beauty, improve aesthetics, and prepare stones for various applications.

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Geological carbon coating involves applying a thin carbon layer to mineral samples to enhance their conductivity for electron microscopy analysis. This technique improves imaging quality and structural detail of geological specimens.

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Geological mounting is the process of embedding and stabilizing rock or mineral samples in resin or other materials to prepare them for microscopic examination and detailed analysis of their structure and composition.​

A geological shaking table uses water and vibrations to separate heavy minerals from lighter materials in rock samples, enabling the analysis and extraction of valuable minerals for study and resource extraction.

Mineral processing technique where particles are separated by density through pulsating water flow in a jig, effectively concentrating heavier minerals from lighter material in ore samples

Mineral photography involves capturing detailed images of minerals to document their features, assist in identification, and support research, enhancing the study of mineral properties and geological formations.

Geological exploration involves studying Earth's materials, processes, and structures to locate natural resources like minerals, oil, and gas. Techniques include field surveys, mapping, sampling, and geophysical methods for resource assessment.

Geochronology is the scientific study of the age of Earth materials and events using radiometric dating and other methods. By analyzing isotopic ratios in minerals and rocks, geochronologists determine the timing of geological processes, contributing to our understanding of Earth's history, plate tectonics, and the evolution of life.

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Geological milling and crushing processes break down large rock samples into smaller fragments, facilitating easier analysis and processing. These methods prepare materials for further study or extraction, enhancing efficiency in resource evaluation.

Geological microscopy involves examining rock and mineral samples under a microscope to study their composition, structure, and formation processes, aiding in the understanding of Earth's history, resources, and geologic events.

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Geological gem identification involves analyzing gemstones using techniques like microscopy, spectroscopy, and chemical tests to determine their origin, authenticity, composition, and value, aiding gemologists and collectors.​​​​​​​

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Geological panning is a method of extracting valuable minerals, like gold, from sediment by swirling water in a pan to separate heavier particles from lighter ones, commonly used in field prospecting.

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Magnetic separation uses magnets to isolate magnetic minerals from rock or soil samples, aiding in the study and extraction of valuable minerals and enhancing the understanding of geological compositions.

Geological particle size distribution and classification analyze the sizes and proportions of particles in a sample, aiding in understanding sedimentary processes, soil characteristics, and material properties for various geological applications.