4,5-Dicyanoimidazole (DCI): A Superior Activator for Enhanced Oligonucleotide Synthesis

Unlock higher yields and efficiency in your DNA and RNA synthesis with this advanced chemical activator.

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Key Product Advantages

Superior Coupling Efficiency

DCI demonstrably doubles the coupling rate compared to tetrazole, directly impacting the overall yield of your oligonucleotide synthesis. This boost in efficiency is crucial for obtaining high-quality, full-length products, particularly when aiming for enhanced oligonucleotide synthesis.

Reduced Acidity and Side Reactions

With a pKa of 5.2, DCI is less acidic than tetrazole (pKa 4.8). This lower acidity minimizes unwanted side reactions, such as trityl group deprotection, which can lead to dimer formation and lower yields in your DNA synthesis experiments.

Enhanced Solubility and Workability

DCI boasts better solubility in acetonitrile, allowing for higher concentration solutions. This improved solubility, coupled with its potent activity, makes it a more versatile and manageable reagent for various synthesis scales, supporting your efforts in chemical synthesis.

Key Applications

DNA Synthesis

Leverage DCI to achieve significantly improved coupling efficiencies in the synthesis of DNA strands, ensuring higher purity and yield for your research projects. This is vital for DNA synthesis advancements.

RNA Synthesis

DCI is particularly effective in RNA synthesis, overcoming the challenges posed by bulky protecting groups and contributing to the successful production of complex RNA molecules through RNA synthesis optimization.

Oligonucleotide Synthesis

As a premier activator, DCI enhances the overall performance of solid-phase oligonucleotide synthesis, providing a reliable solution for producing both standard and modified oligonucleotides by utilizing this DCI oligonucleotide synthesis reagent.

Custom Synthesis Projects

For specialized chemical synthesis needs, DCI offers a robust and efficient activation pathway, supporting the creation of novel nucleic acid structures and derivatives through advanced chemical synthesis methodologies.