In the realm of genome editing, precision is paramount. Scientists strive to achieve pinpoint accuracy when manipulating genetic material, whether for basic research or therapeutic applications. One of the key tools enabling this precision is the single-guide RNA (sgRNA). In this blog post, we'll explore various strategies for designing sgRNAs to facilitate precise genome editing.

CRISPR-Cas9 technology has revolutionized the field of genome editing, offering unprecedented precision and efficiency in targeted genetic modifications. One of the critical components of CRISPR-mediated genome editing is the delivery of single guide RNA (sgRNA) to the target cells. Optimizing sgRNA delivery methods is crucial for maximizing the efficiency and specificity of CRISPR editing. In this blog post, we will explore various strategies for enhancing sgRNA delivery, thereby improving CRISPR efficiency.

DNA electrophoresis is a very important and common technique in the field of life sciences, allowing researchers to analyze the size and structure of DNA fragments and uncover the mysteries of the genome. In this field, FLUORESCENT ssDNA LADDER is emerging as a new favorite among researchers.

If you have been working with us for a couple of years, you probably already noticed that our single-molecule FISH Probes changed names and are not called HuluFISH Probes anymore, but NovaFISH Probes. However, not only was it the name that changed, but also did the structure.

We have today a very short blog for an easy read about one of our products that is least mentioned: the fluorescent ssDNA ladder.

Cell transfection techniques are commonly used in biological research to effectively introduce exogenous DNA, RNA, or proteins into cells for purposes such as gene editing and protein expression. Electroporation and lipofection are two common transfection methods that play important roles in the field of cell transfection.