Cyanine5.5 hydrazide

Cyanine55 hydrazide, a fluorescent dye utilized in various bioscience applications, particularly excels in imaging and labeling. Here are four key applications of Cyanine55 hydrazide:

Molecular Imaging: Delving into the realm of molecular imaging, Cyanine55 hydrazide emerges as a pivotal tool for visualizing real-time biological processes. This versatile dye can be seamlessly conjugated to biomolecules like antibodies or peptides, enabling researchers to meticulously trace their distribution and interactions within live cells or tissues. Such precision is paramount for unraveling the intricacies of disease progression, optimizing drug delivery, and deciphering the dynamic landscape of cellular activities.

Fluorescence Microscopy: In the domain of fluorescence microscopy, Cyanine55 hydrazide shines as a beacon for labeling and pinpointing specific targets within a sample. Its luminous fluorescence and steadfast stability render it a top choice for achieving high-resolution imaging of cellular structures, proteins, and nucleic acids. This technique serves as a cornerstone for scrutinizing cellular architecture, unraveling protein localization, and elucidating gene expression patterns in a visually captivating manner.

Bioconjugation: Unlocking a realm of possibilities, Cyanine55 hydrazide can be seamlessly conjugated to a myriad of biomolecules – be it proteins, nucleic acids, or small molecules – to craft fluorescent probes. These probes serve as invaluable instruments for detecting and quantifying specific targets in biochemical assays like ELISA and flow cytometry, ensuring meticulous identification and quantification of biomolecules amidst complex mixtures, paving the way for groundbreaking discoveries.

Optical Imaging in Vivo: Transitioning to the realm of animal studies, Cyanine55 hydrazide takes center stage for optical imaging applications, allowing researchers to monitor biological processes within living organisms with unparalleled clarity. Its near-infrared fluorescence capability grants deep tissue penetration and minimal background interference, making it a prime candidate for non-invasive imaging endeavors. Through this lens, researchers gain insights into tumor progression, metastasis dynamics, and the efficacy of therapeutic interventions with unprecedented precision and depth.