Gallium Corrole
Gallium Corrole - Related Videos
09:00
An In Vitro Enzymatic Assay to Measure Transcription Inhibition by Gallium(III) and H3 5,10,15-tris(pentafluorophenyl)corroles
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Cited by 1 •
2015
Gallium(III) 5,10,15-(tris)pentafluorophenylcorrole and its freebase analogue exhibit low micromolar cell cytotoxicity. This manuscript describes an RNA transcription reaction, imaging RNA with an ethidium bromide-stained gel, and quantifying RNA with UV-Vis spectroscopy, in order to assess transcription inhibition by corroles and demonstrates a straightforward method of evaluating anticancer candidate properties.
09:06
Development of a 68Gallium-Labeled D-Peptide PET Tracer for Imaging Programmed Death-Ligand 1 Expression
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Cited by 6 •
2023
This study developed a noninvasive and real-time method to evaluate the distribution of programmed death-ligand 1 in the whole body, based on positron emission tomographic imaging of [68Ga] D-dodecapeptide antagonist. This technique has advantages over conventional immunohistochemistry and improves the efficiency of identifying appropriate patients who will benefit from immune checkpoint blockade therapy.
10:31
Plasma-assisted Molecular Beam Epitaxy of N-polar InAlN-barrier High-electron-mobility Transistors
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Cited by 2 •
2016
Molecular beam epitaxy is used to grow N-polar InAlN-barrier high-electron-mobility transistors (HEMTs). Control of the wafer preparation, layer growth conditions and epitaxial structure results in smooth, compositionally homogeneous InAlN layers and HEMTs with mobility as high as 1,750 cm2/V∙sec.
15:58
Measurement of Coherence Decay in GaMnAs Using Femtosecond Four-wave Mixing
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Cited by 3 •
2013
The technique of femtosecond four-wave mixing is described, including spectrally-resolved and time-resolved configurations. We illustrate the utility of this technique for the investigation of crucial physical properties in the III-V diluted magnetic semiconductors, afforded by its nonlinearity and high temporal resolution.
11:22
Investigations on the Ga(III) Complex of EOB-DTPA and Its 68Ga Radiolabeled Analogue
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Cited by 2 •
2016
A procedure for the isolation of EOB-DTPA and subsequent complexation with natural Ga(III) and 68Ga is presented herein, as well as a thorough analysis of all compounds and investigations on labeling efficiency, in vitro stability and the n-octanol/water distribution coefficient of the radiolabeled complex.
FAQs
Gallium coordination provides a defined metal–ligand arrangement that stabilizes the compound and helps determine how the corrole framework interacts with its environment. Because the gallium ion is held by nitrogen atoms in the macrocycle, changes to the surrounding ligand structure can alter molecular recognition, electronic behavior, and compatibility with biological designs.
The conjugated framework governs how Gallium Corrole absorbs light and contributes to its electronic behavior. These properties make the compound relevant to studies of light-activated biological processes, where the selected structure can influence how the material responds to illumination and interacts with nearby molecules. The framework therefore connects molecular design with potential biological function.
Adjustable substituents provide a way to tune how a Gallium Corrole compound behaves in a biological setting. They may affect solubility, interactions with surrounding molecules, and suitability for recognition or delivery to a selected target. This tunability supports design flexibility, but each modification must be considered alongside cellular compatibility and the intended application.
A useful design must balance the compound’s molecular properties with biological handling requirements. Researchers should consider solubility, cellular compatibility, and whether the construct can reach the intended biological target. They can then relate those factors to the desired function, such as molecular recognition, imaging, or a light-activated response, rather than optimizing optical behavior alone.
Gallium Corrole compounds can support several bioengineering directions, including molecular recognition studies, imaging, and light-activated biological processes. Their tunable substituents also make them candidates for biological probes or therapeutic materials. The appropriate use depends on whether the design can combine the needed molecular interactions and light-related behavior with acceptable solubility and cellular compatibility.
Their conjugated structures provide light-absorption properties, while the coordinated gallium and adjustable substituents support control over molecular interactions. Together, these features create platforms for investigating imaging designs and light-activated biological processes. In practice, researchers must also determine whether the compound remains sufficiently soluble, compatible with cells, and deliverable to the biological target under study.