aging and longevity research
Gene therapy presents the potential to permanently repair a disease at the most rudimentary level, the genome.
Telomeres are crucial in ensuring our DNA gets adequately copied when cells divide
Imagine a world where we can age without getting old.
Imagine a world where we can age without getting old.
Imagine a world where we can age without getting old.
Alopecia is a general term that refers to hair loss or baldness. It can occur on the scalp or other body areas and can result from various causes. Alopecia can be temporary or permanent, and its severity and pattern can
Genotype: This is your genetic “behind-the-scenes” script. It’s like having a backstage pass to a movie set. Your genotype is a bit like the director’s secret notes, telling the actors (your genes) what lines to say and how to act.
Here is a simple way to understand the difference between DNA, Genes, and Chromosomes: DNA (Deoxyribonucleic Acid): Consider DNA the ultimate instruction manual for building and operating you! (yes, you are the end product!) It’s like the recipe for a
Think of your DNA as the instruction manual for building and running your body – it’s like the recipe book for making you, right? Well, the epigenome is like the chef’s secret notes scribbled all over those recipes. You see,
Have you ever seen a person whose biological age is in his/her 50s but perform and look like in their 30S? A person might look and feel a certain age on the outside (e.g., 30 years old) while their organs
Stem cells are a unique and remarkable type of cell with the extraordinary ability to develop into a wide variety of specialized cell types within the body. They also possess the capacity for self-renewal, which means they can divide and
Have you ever wondered how scientists can tell the age of your cells, even if you don’t look or feel that age? That’s where epigenetic clocks come in. Imagine these clocks as tiny markers on your DNA that change as
Ok, In simple terms, DNA methylation is a natural process that involves the addition of small chemical tags called “methyl groups” to the DNA molecule. These methyl groups can be considered tiny “flags” attached to specific parts of the DNA
Here is a step-by-step description of the process involving the Yamanaka factors, which is the reprogramming of adult cells into induced pluripotent stem cells (iPSCs). Here’s a detailed breakdown: Step 1: Gather Adult Cells Step 2: Introduce Yamanaka Factors Step
The Yamanaka factors refer to a group of genes that play a crucial role in a groundbreaking scientific discovery related to cellular reprogramming and stem cell research. These factors were discovered by Japanese scientist Shinya Yamanaka in 2006 and have