146368-07-2Relevant academic research and scientific papers
Sulfo - Cy3 carboxylic acid fluorescent dye and preparation process thereof
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Paragraph 0014; 0017, (2021/10/05)
The invention relates to a sulfo - Cy3 carboxylic acid fluorescent dye and a preparation process thereof, wherein the synthesized sulfo - Cy3 carboxylic acid has fluorescent quantum yield. At the same time, the high-emission high-excitation wavelength and is easily dissolved in water physical and chemical property stability points, and simultaneously, a single condensation target product needs to be selectively generated when the indole α-position methyl activity is achieved through simultaneous construction of the benzylindole two-side branch chains and high in yield, and C18 column separation is avoided.
NOVEL CYANINE COMPOUND FOR LABELING BIOMOLECULE AND PREPARATION METHOD THEREOF
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Paragraph 0115; 0123-0125, (2018/04/18)
The present invention refers to biomolecule marker has a cyanine compound and number to the next formula 1 bath method are disclosed. [Formula 1] Another test, R1 , R2 , R3 , R4 , B, m and n each specification defines efined. (by machine translation)
Bioorthogonally Applicable Fluorogenic Cyanine-Tetrazines for No-Wash Super-Resolution Imaging
Knorr, Gergely,Kozma, Eszter,Schaart, Judith M.,Németh, Krisztina,T?r?k, Gy?rgy,Kele, Péter
, p. 1312 - 1318 (2018/04/23)
The synthesis, fluorogenic characterization, and labeling application of four tetrazine-quenched cyanine probes with emission maxima in the red-far red range is reported. Fluorescence of the cyanine-cores is quenched via through-bond-energy-transfer (TBET) exerted by a bioorthogonal tetrazine unit. Upon bioorthogonal labeling reaction with cyclooctyne tagged proteins, the quenching effect ceases, and thus the fluorescence reinstates, resulting in an increase in fluorescence intensity. As a rare example among indocyanines, one of our new probes was found suitable in STED-based super-resolution imaging. The applicability of this fluorogenic Tet-Cy3 probe was therefore further demonstrated in the bioorthogonal labeling of cytoskeletal protein, actin, with subsequent super-resolution microscopy (STED) imaging even under no-wash conditions.
Near-infrared aminocyanine dyes with long-life triplet excited state and preparation method of dyes
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Paragraph 0031; 0034; 0035, (2018/05/16)
The invention provides near-infrared aminocyanine dyes with a long-life triplet excited state in the structural formula I. In the formula, X is C(CH3)2, O, S or Se; R1 and R2 are independently selected from C1-C18 alkyl or benzyl, and R3 and R4 are H, SO3R6, CO2R7 or NCS; Y is a halogen ion, ClO4, PF6, BF4, CH3COO or OTs. The heptamethine aminocyanine dye compounds I have longertriplet excited state life and higher singlet state oxygen production capability as compared with commercial dye ICG (indocyanine green) and have the potential as a near-infrared photosensitizer for photodynamic therapy.
A near-infrared heptamethine aminocyanine dye with a long-lived excited triplet state for photodynamic therapy
Jiao, Long,Song, Fengling,Cui, Jingnan,Peng, Xiaojun
supporting information, p. 9198 - 9201 (2018/08/24)
A water-soluble near-infrared aminocyanine dye has been developed with a long triplet-state lifetime (τ = 9.16 μs in deaerated ethanol). Thereby, extremely high singlet oxygen quantum yield (ΦΔ = 0.20) and low dark cytotoxicity (IC50 = 715.4 μM) were achieved. The potential of the dye as a PDT photosensitizer was demonstrated.
Imaging agents useful for brain and prepration method thereof
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Paragraph 0089-0091, (2017/08/02)
The present invention relates to a fluorescent dye for brain imaging, which is represented by the following [Chemical Formula 1]. [Chemical Formula 1] In the [Chemical Formula 1], R_1, R_2, R_3, R_4, R_5, and n are as defined in the specification.(AA) Example 1(BB) Example 3(CC) Example 4(DD) Example 5COPYRIGHT KIPO 2017
NOVEL CYANINE COMPOUND FOR LABELING BIOMOLECULE AND PREPARATION METHOD THEREOF
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Paragraph 0115; 0123-0125, (2017/09/14)
The present invention relates to a novel cyanine compound which is represented by chemical formula 1, and is used for biomolecular labeling. The present invention further relates to a production method thereof. In the chemical formula 1, R_1, R_2, R_3, R_4, B, m, and n are the same as defined in the present specification.COPYRIGHT KIPO 2017
FLUORESCENCE COMPOUNDS AND PREPARATION METHOD THEREOF
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Paragraph 0156; 0157; 0158; 0159; 0160, (2017/11/16)
Provided is a fluorescent compound represented by the following [Chemical Formula 1] and a method for preparing the same: wherein each of X, Y, R1, R2, R3 and n is the same as defined in the specification.
A class of amino cyanine fluorochrome and its preparation method and application
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Paragraph 0045; 0049; 0050, (2017/08/25)
The invention discloses amino cyanine fluorescent dyes connected with cyclopeptide [cyclo(RGD)] and a preparation method therefor and application thereof. The structural formula of the compounds is shown in I. The compounds consist of structural units III and III; the structural unit II is a derived cyanine dye structure which is water soluble fluorescent molecules, the spectrum of which has relatively great Stokes shift, and the molecules have relatively less toxicity to normal cells; the structural unit III is a cyclopeptide structure of a specific ligand of an alpha v beta 3 integrin receptor and can be used for targeted orientation. The fluorescent dyes have the double function characteristic of tumor imaging diagnosis and targeted therapy.
NOVEL CYANINE COMPOUND FOR LABELING BIOMOLECULE AND PREPARATION METHOD THEREOF
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Paragraph 0115; 0123-0125, (2017/05/02)
The present invention relates to a novel cyanine compound represented by chemical formula 1 for labeling a biomolecule, and to a preparation method thereof. In chemical formula 1, each of R_1, R_2, R_3, R_4, B, m, and n is the same as defined in the specification. The cyanine compound has high stability, and thus can be easily stored for a long period of time. Also, the cyanine compound does not generate byproducts after a biomolecule forms a bond with a pigment, and thus does not require a subsidiary purification process.
