Epigene Labs’ Post

For those who wonder what I've been up to in the past 2 years, here's a big part of the answer. 🤓 Check out our pre-print! 💻 Check out our repository!

I am thrilled to share that I recently completed an intensive four-day session on Advanced Data Visualization using R Programming at Eminent Biosciences , under the expert guidance of Dr. Anuraj Nayarisseri , Principal Scientist at Eminent Biosciences. This transformative workshop focused on leveraging the power of R programming and its robust packages, such as ggplot2, dplyr, and tidyverse, to craft advanced and visually compelling plots. Through hands-on activities using gene expression data, we explored the classification of genes, pathways, tissues, mutations, and disease conditions, enabling deeper insights into complex biological datasets. A heartfelt thank you to Dr. Anuraj Nayarisseri and Eminent Biosciences for this incredible opportunity to elevate my skills in data visualization and enhance my understanding of bioinformatics and genomics. This experience has enriched my ability to communicate data-driven insights effectively—a vital skill for tackling challenges in cancer bioinformatics, differential expression analysis, and beyond. #DataAnalysis #DataScience #RProgramming #ggplot2 #Bioinformatics #Genomics #NextGenerationSequencing #GeneExpression #CancerResearch #MachineLearning #DeepLearning #ArtificialIntelligence #Oncology #DifferentialExpression

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.

Using a novel bispecific guide RNA, the bridge recombinase mechanism enables modular and programmable DNA insertion, excision, and inversion in bacteria.