Inorganic Minerals
Inorganic Minerals - Related Videos
11:19
Safe Handling of Mineral Acids
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2023
Source: Robert M. Rioux & Taslima A. Zaman, Pennsylvania State University, University Park, PA A mineral acid (or inorganic acid) is defined as a water-soluble acid derived from inorganic minerals by chemical reaction as opposed to organic acids (e.g. acetic acid, formic acid). Examples of mineral acids include: • Boric acid (CAS No.10043-35-3) • Chromic acid (CAS No.1333-82-0) • Hydrochloric acid (CAS No.7647-01-0) • Hydrofluoric acid (CAS No. 7664-39-3) • Nitric acid (CAS No. 7697-37-2) •...
07:32
Monitoring Pedogenic Inorganic Carbon Accumulation Due to Weathering of Amended Silicate Minerals in Agricultural Soils.
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Cited by 13 •
2021
The verification method described here is adaptable for monitoring pedogenic inorganic carbon sequestration in various agricultural soils amended with alkaline earth metal silicate-containing rocks, such as wollastonite, basalt, and olivine. This type of validation is essential for carbon credit programs, which can benefit farmers that sequester carbon in their fields.
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...
10:20
Quantification of Heavy Metals and Other Inorganic Contaminants on the Productivity of Microalgae
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Cited by 14 •
2015
Integration of microalgal cultivation with industrial flue gas will ultimately introduce heavy metals and other inorganic compounds into the growth media. This study presents a procedure used to determine the end fate and impact of heavy metals and inorganic contaminants on the growth of Nannochloropsis salina grown in photobioreactors.
03:16
An Assay for the Quantification of Inorganic Polyphosphate in Bacteria
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2025
Source: Pokhrel, A., et al. Assaying for Inorganic Polyphosphate in Bacteria. J. Vis. Exp. (2019).This video demonstrates a colorimetric assay to measure inorganic polyphosphate (polyP) in bacterial samples. The procedure involves enzymatically converting polyP into free phosphate, which then reacts with molybdate and ascorbic acid to produce a blue-colored complex. By comparing the absorbance of this complex to a standard curve of known phosphate concentrations, the polyP content in bacterial...
FAQs
Calcium and phosphorus support bone development by contributing to hydroxyapatite formation, the mineral component associated with skeletal structure. Their role is therefore structural rather than limited to general nutrition. Studying these minerals helps explain how bones develop and why mineral metabolism is important for maintaining biological structure in living organisms.
Sodium and potassium help maintain osmotic balance and membrane potential, the electrical difference across a cell membrane. These properties support the communication and responsiveness required for nerve and muscle activity. Changes in mineral availability can therefore affect processes that depend on controlled ion distribution and electrical conditions within cells.
Iron contributes to oxygen transport, while magnesium can function as an enzyme cofactor, a mineral component that supports enzyme activity. Together, these roles connect inorganic minerals with cellular respiration and other chemical reactions. Their biological importance comes from how specific ions participate in distinct functional processes rather than serving interchangeable purposes.
After organisms obtain minerals from food or the environment, absorption makes them available for internal use, and ion transport distributes them to relevant locations. This movement determines whether minerals can support functions such as enzyme activity, skeletal mineral formation, osmotic balance, membrane potential, or oxygen transport. Disruption at either stage can contribute to deficiency.
Investigating mineral metabolism follows how minerals enter organisms, become absorbed, and reach the processes where they function. This perspective connects nutrient availability with bone development, nerve and muscle activity, cellular respiration, and oxygen transport. It also helps relate mineral deficiencies to disrupted biological functions rather than viewing minerals as isolated dietary components.
Mineral cycling links organisms to the surrounding environment because minerals move between living systems and reservoirs such as soils and water. This broader context shows that biological mineral use is part of an ecological process, not only an internal cellular event. Examining cycling can therefore connect organismal needs with ecosystem-level nutrient movement.