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Product Introduction
ICG ADIBO is a strain-promoted azide-alkyne cycloaddition (SPAAC) reagent of near infrared (NIR) fluorescent dye and used to generate a stable fluorescence signal in bioimaging. NIR fluorescence allows to observe the deep image from the surface of skin and being utilized in a wide range of research fields. The maxima of Ex/Em values are at 785/812 nm. ICG might be excited using 750-800 nm laser line or LED and displays excellent optical property. ICG ADIBO couples with an azide to form 1,4-disubstituted 1,2,3-triazole inside of living systems without using any coupling reagents or catalyst nor interfering native biochemical processes. Prior to perform SPAAC, the azide functionality should be introduced onto counterpart biomolecule by means of chemical or genetic modification. We offer ICG ADIBO as a SPAAC reagent dye for cellular imaging and nucleotide functionalization.
Chemical Information
Product Specification
Application
Chemical Information
| Solubility | DMF, DMSO |
| Appearance | Green solid |
Product Specification
| CF280 | 0.1 |
| Excitation | 785 |
| Emission | 812 |
| Storage | -20 °C, protect from light |
Application
ICG ADIBO is a near-infrared fluorescent imaging dye built on an indocyanine framework, designed for conjugation workflows that benefit from a reactive handle and strong NIR emission for low-background visualization. In fluorescence-based materials and chemical biology experiments, it is typically used to generate labeled probes, conjugates, or tracked constructs where NIR readout improves tissue and media penetration compared with visible dyes.
1. NIR Fluorescent Conjugation
ICG ADIBO is used by chemical biology and biomaterials teams to prepare fluorescent conjugates for tracking macromolecules, nanoparticles, and engineered surfaces in NIR fluorescence imaging experiments. Researchers commonly incorporate it into labeling strategies for polymers, affinity reagents, and carrier systems where a stable dye label is required for downstream imaging readouts. The indocyanine-based emission supports visualization in instrumentation platforms that detect near-infrared signals, enabling researchers to follow conjugate distribution and retention in complex sample matrices.
2. Fluorescence Imaging Tracing
ICG ADIBO supports fluorescence imaging tracing workflows in microscopy and optical imaging setups that collect near-infrared channels. Lab groups use it to monitor the localization and movement of dye-labeled constructs in cell culture, organotypic samples, or engineered materials, where reduced autofluorescence from the visible range can simplify image interpretation. In imaging reagent development, it is often selected as a labeling component for building NIR-compatible tracers used in longitudinal imaging experiments and comparative imaging across experimental conditions.
3. Biomaterial Surface Labeling
ICG ADIBO is applied in biomaterials science to fluorescently tag surfaces, coatings, and scaffold materials for mapping material-associated signal in imaging studies. Researchers use it to create NIR-labeled biomaterial constructs that can be visualized during characterization of coating uniformity, surface coverage, and wash-off behavior in experimental workflows. This labeling approach is frequently used when investigators want a strong NIR reporter that integrates into surface functionalization pipelines and supports optical readout without relying on visible chromophores.
4. NIR FRET Pair Construction
ICG ADIBO is also used in fluorescence probe and FRET system development as a near-infrared donor component for designing energy-transfer readouts. In fluorescence assay development, it can be incorporated into donor-acceptor architectures where NIR emission is advantageous for reducing background and improving channel separation in multi-fluorophore experiments. Teams building Förster resonance energy transfer assays use it to create conjugate-based reporters that translate molecular proximity or assembly state into a measurable fluorescence change in NIR-detecting instrumentation.
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