Ferrous Iron
Ferrous Iron - Related Videos
03:56
Caco-2 Cell Bioassay: An In Vitro Method for Measuring Iron Bioavailability in Complex Food Sources
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2025
This video demonstrates an in vitro technique to assess iron bioavailability in complex food sources. The technique combines the simulation of human digestion along with iron uptake by differentiated Caco-2 cells. Intracellular ferritin formation acts as a marker for cellular iron uptake.
08:45
Quantitating Iron Transport Across the Mouse Placenta In Vivo Using Nonradioactive Iron Isotopes
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Cited by 3 •
2022
This article demonstrates how to prepare and administer transferrin-bound nonradioactive isotopic iron for studies of iron transport in mouse pregnancy. The approach for quantifying isotopic iron in fetoplacental compartments is also described.
01:25
Isolation of Ammonium-Oxidizing Iron Reducers from a Wetland Soil–Derived Enrichment Culture
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2025
Begin with a wetland soil-derived enrichment culture containing bacterial communities.The culture exhibits Feammox activity, ammonium oxidation coupled to ferric iron reduction, indicating the enrichment of a bacterium capable of this metabolic process.Serially dilute the culture using media.Streak the diluted samples onto test agar plates supplemented with ferric iron and ammonium.Use control plates that lack either ferric iron or ammonium, or contain ferric iron with organic carbon instead of...
08:59
Fabrication of a Functionalized Magnetic Bacterial Nanocellulose with Iron Oxide Nanoparticles
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Cited by 42 •
2016
Here, we present a protocol to make a bacterial nanocellulose (BNC) magnetic for applications in damaged blood vessel reconstruction. The BNC was synthesized by G. xylinus strain. On the other hand, magnetization of the BNC was realized through in situ precipitation of Fe2+ and Fe3+ ferrous ions inside the BNC mesh.
03:03
Bathophenanthroline Sulfonate-Based Colorimetric Assay: A Simple and Rapid Method for Quantitation of Non-Heme Iron in Mouse Liver Tissue
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2025
In this video, we describe a colorimetric-based method to determine non-heme iron content in mouse liver tissue. Bathophenanthroline sulfonate is used as the chromogenic substrate in the presence of a reducing agent, which converts ferric iron to chelatable ferrous iron.
FAQs
Ferrous iron can support biology through reversible redox reactions because its oxidation state permits electron transfer to and from molecular partners. In proteins such as cytochromes, this property helps move electrons during energy production. The same chemical reactivity requires regulation, since uncontrolled Fe2+ can promote reactive oxygen species formation.
Within heme groups, ferrous iron binds oxygen in hemoglobin and myoglobin. This connection links the ion to oxygen transport and to oxygen handling in biological tissues. Studying these proteins therefore shows how the same metal component contributes to both circulating oxygen delivery and oxygen availability within muscle-related cells.
Cells regulate ferrous iron through storage, transport, and incorporation into enzymes to balance its usefulness with its potential chemical danger. Controlled handling makes the ion available for essential proteins and reactions, while limiting conditions in which excess Fe2+ could promote reactive oxygen species formation and cellular stress.
Ferrous iron contributes to energy production by supporting electron transfer in proteins such as cytochromes. These proteins use its redox properties as part of the cellular machinery associated with respiration. Consequently, disrupted iron handling can be studied in relation to both impaired energy-related reactions and broader changes in cellular iron homeostasis.
Ferrous iron is relevant to anemia research because it participates in oxygen binding through heme groups in hemoglobin. Changes affecting iron availability or handling can therefore be considered alongside oxygen transport. This perspective connects molecular iron biology with the physiological consequences examined in studies of anemia and related disorders.
Investigations of ferrous iron connect normal metal-ion functions with the consequences of disrupted metabolism. Its roles in oxygen handling, energy production, redox reactions, and enzyme incorporation provide several biological points of focus. Researchers can use these links to examine how altered iron homeostasis relates to reactive oxygen species, oxidative stress, and associated diseases.