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Tide Quencher™ 8WS alkyne [TQ8WS alkyne]

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Tide Quencher™ 7WS succinimidyl ester [TQ7WS SE]
Tide Quencher™ 1 azide [TQ1 azide]
Tide Quencher™ 1 acid [TQ1 acid]
Tide Quencher™ 1 amine [TQ1 amine]
Tide Quencher™ 1 CPG [TQ1 CPG] *500 Å*
Tide Quencher™ 1 CPG [TQ1 CPG] *1000 Å*
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Tide Quencher™ 2 acid [TQ2 acid]
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Tide Quencher™ 2 CPG [TQ2 CPG] *500 Å*
Tide Quencher™ 2 CPG [TQ2 CPG] *1000 Å*
Tide Quencher™ 2 phosphoramidite [TQ2 phosphoramidite]
Tide Quencher™ 2 succinimidyl ester [TQ2 SE]
Tide Quencher™ 2 azide [TQ2 azide]
Tide Quencher™ 3 acid [TQ3 acid]
Tide Quencher™ 3 amine [TQ3 amine]
Tide Quencher™ 3 CPG [TQ3 CPG] *500 Å*
Tide Quencher™ 3 CPG [TQ3 CPG] *1000 Å*
Tide Quencher™ 3 maleimide [TQ3 maleimide]
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Tide Quencher™ 3 phosphoramidite [TQ3 phosphoramidite]
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Tide Quencher™ 4WS-DBCO [TQ4WS-DBCO]
Tide Quencher™ 5WS azide [TQ5WS azide]
Tide Quencher™ 7WS azide [TQ7WS azide]
Tide Quencher™ 5.1WS acid [TQ5.1WS acid]
Tide Quencher™ 5.1WS amine [TQ5.1WS amine]
Tide Quencher™ 5.1 CPG [TQ5.1 CPG] *500 Å*
Tide Quencher™ 5.1 CPG [TQ5.1 CPG] *1000 Å*
Tide Quencher™ 5.1WS maleimide [TQ5.1WS maleimide]
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Tide Quencher™ 5.1WS azide [TQ5.1WS azide]
Tide Quencher™ 5.1WS alkyne [TQ5.1WS alkyne]
Tide Quencher™ 7.1WS acid [TQ7.1WS acid]
Tide Quencher™ 7.1WS amine [TQ7.1WS amine]
Tide Quencher™ 7.1 CPG [TQ7.1 CPG] *500 Å*
Tide Quencher™ 7.1 CPG [TQ7.1 CPG] *1000 Å*
Tide Quencher™ 7.1WS maleimide [TQ7.1WS maleimide]
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Tide Quencher™ 7.1WS azide [TQ7.1WS azide]
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Tide Quencher™ 7.2WS acid [TQ7.2WS acid]
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Tide Quencher™ 7.2 CPG [TQ7.2 CPG] *500 Å*
Tide Quencher™ 7.2 CPG [TQ7.2 CPG] *1000 Å*
Tide Quencher™ 7.2WS maleimide [TQ7.2WS maleimide]
Tide Quencher™ 7.2WS succinimidyl ester [TQ7.2WS SE]
Tide Quencher™ 7.2WS azide [TQ7.2WS azide]
Tide Quencher™ 7.2WS alkyne [TQ7.2WS alkyne]
Tide Quencher™ 8 CPG [TQ8 CPG] *500 Å*
Tide Quencher™ 8WS succinimidyl ester [TQ8WS SE]
Tide Quencher™ 8 CPG [TQ8 CPG] *1000 Å*
Tide Quencher™ 3WS maleimide [TQ3 maleimide]
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Tide Quencher™ 8WS (TQ8WS) is a non-fluorescent molecule designed to efficiently quench the fluorescence of IR fluorophores such as ICG, iFluor® 820, iFluor® 840 and iFluor® 860. It has the longest absorption wavelength among all the commercial quenchers. TQ8WS is designed to be the most effective IR quencher with (a). much stronger absorption, and (b). much higher quenching efficiency for IR dyes. Tide Quencher™ 8WS Alkyne is an excellent building block for preparing TQ8WS-labeled probes from azido-modified oligonucleotides (including picolyl azide-modified oligonucleotides via the well-known click chemistry. It can be used in techniques such as polymerase chain reaction (PCR), real-time PCR, and DNA sequencing. In these applications, fluorescence signals are used to monitor the amplification or detection of specific DNA sequences. TQ8WS quenches the fluorescent signal until a specific event (like DNA strand separation or primer extension) occurs, leading to an increase in fluorescence that can be detected and quantified. Fluorescence resonance energy transfer (FRET)-based assays are widely used to detect and measure the presence of specific molecules in a sample. They involve the use of a fluorescent molecule (fluorophore) and a quencher molecule such as TQ8WS. The fluorophore emits light when excited by a specific wavelength of light, while the quencher molecule absorbs this emitted light, effectively "quenching" the fluorescence signal.
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Catalog Number2137
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Telephone1-800-990-8053
Fax1-800-609-2943
Emailsales@aatbio.com
InternationalSee distributors
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Custom sizeInquire
ShippingStandard overnight for United States, inquire for international
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Physical properties
Molecular weight914.97
SolventDMSO
Storage, safety and handling
H-phraseH303, H313, H333
Hazard symbolXN
Intended useResearch Use Only (RUO)
R-phraseR20, R21, R22
StorageFreeze (< -15 °C); Minimize light exposure
References
View all 50 references: Citation Explorer
Design and test of a rigid endomicroscopic system for multimodal imaging and femtosecond laser ablation.
Authors: Lai, Chenting and Calvarese, Matteo and Reichwald, Karl and Bae, Hyeonsoo and Vafaeinezhad, Mohammadsadegh and Meyer-Zedler, Tobias and Hoffmann, Franziska and Mühlig, Anna and Eidam, Tino and Stutzki, Fabian and Messerschmidt, Bernhard and Gross, Herbert and Schmitt, Michael and Guntinas-Lichius, Orlando and Popp, Jürgen
Journal: Journal of biomedical optics (2023): 066004
Indocyanine Green Imaging in Laparoscopic Cholecystectomy Plus Laparoscopic Common Bile Duct Exploration: A Suitable Option for Patients With Difficult Exploration (With Videos).
Authors: Ma, Chenhui and Zhang, Lei and Wen, Junye and Zhang, Wanxing and Chen, Hao
Journal: Surgical laparoscopy, endoscopy & percutaneous techniques (2023): 235-240
Current and Future Applications of Fluorescence Guidance in Orthopaedic Surgery.
Authors: Streeter, Samuel S and Hebert, Kendra A and Bateman, Logan M and Ray, Gabrielle S and Dean, Ryan E and Geffken, Kurt T and Resnick, Corey T and Austin, Daniel C and Bell, John-Erik and Sparks, Michael B and Gibbs, Summer L and Samkoe, Kimberley S and Gitajn, I Leah and Elliott, Jonathan Thomas and Henderson, Eric R
Journal: Molecular imaging and biology (2023): 46-57
A novel technique proposition for determining the resection margins in lung resection by using a thermal camera.
Authors: Sayan, Muhammet and Kankoc, Aykut and Valiyev, Elgun and Celik, Ali
Journal: General thoracic and cardiovascular surgery (2023)
Importance of intraoperative indocyanine green imaging in the management of non-occlusive mesenteric ischemia: a case report.
Authors: Miyashita, Ryohei and Kitazawa, Masato and Tokumaru, Shigeo and Nakamura, Satoshi and Koyama, Makoto and Yamamoto, Yuta and Hondo, Nao and Miyazaki, Satoru and Soejima, Yuji
Journal: Surgical case reports (2023): 31