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• Highly Water-Soluble: Enhanced hydrophilicity enables efficient labeling in aqueous environments with minimal organic solvents.
• Optimized Quenching: Designed for oligonucleotide and peptide labeling, providing high-efficiency quenching for fluorescence-based applications.
• Broad Fluorophore Compatibility: Effectively quenches fluorophores such as TAMRA, TF3, and Cy3, supporting diverse fluorescence-based assays.
• Ideal for Stringent Aqueous Conditions: Enhanced hydrophilicity ensures compatibility with strictly aqueous biological and biochemical applications.

The non-fluorescent Tide Quencher™ 3HWS Acid (TQ3HWS acid) is a next-generation, highly water-soluble quencher optimized for fluorescence-based applications, particularly in oligonucleotide and peptide labeling. As an advanced derivative of TQ3WS, it features significantly enhanced water solubility, enabling efficient labeling in aqueous environments with minimal organic solvent requirements. Like TQ3WS, TQ3HWS is designed to be a superior quencher for fluorophores such as TAMRA, Tide Fluor™ 3 (TF3), and Cy3, offering stronger absorption properties, higher quenching efficiency, and excellent solubility. The increased hydrophilicity of TQ3HWS acid further improves its applicability in biological and biochemical assays requiring stringent aqueous conditions. With its exceptional quenching performance, complete absence of background fluorescence, and excellent solubility, TQ3HWS provides a reliable and efficient solution for demanding fluorescence assays.

TQ3HWS acid is a non-reactive compound used as a reference standard or control in studies involving TQ3HWS-labeled conjugates Additionally, it serves as a key precursor for the synthesis of activated esters and STP derivatives, facilitating further chemical modifications. In aqueous solutions, TQ3HWS acid can be conjugated to hydrazines, hydroxylamines, or amines through water-soluble carbodiimides, such as EDAC. This enables the attachment of the quencher to amino-containing biomolecules, including amine-modified oligonucleotides and peptides.