Probably one of the hottest methods right now in the world of science is PCR (polymerase chain reaction). What started in 1983 as a simple method to amplify DNA now has many different variations and endless application possibilities. As of today, PCR reached the “golden standard” status and is the most applied method in molecular diagnostics with hard-to-beat accuracy and reliability. PCR is routinely applied in infectious disease diagnostics, but also genetic, oncology, prenatal screenings. I doubt that the PCR inventor would have ever guessed that this would become the method eventually transferring the whole healthcare industry. Today, using the same PCR reaction we are basically able to detect anything within minutes, which is a powerful and irreplaceable tool in the hands of medical professionals.
The most popular variations are probably the conventional PCR aka endpoint PCR and qPCR also known as real-time PCR or RT-PCR. To avoid any confusion we are going with endpoint PCR and qPCR.
Both of these variations have a quite similar general mechanism. First, you need purified DNA (not mandatory, but recommended). The larger part of the PCR reaction occurs in three main steps, repeated around 20-40 times.
To advance innovation in synthetic biology we decided to help young and talented scientists from Lund University with their Methane RemOOver project. Their goal is the reduction of methane emissions from cows using a synthetically engineered microorganism. With this idea, they also participated in iGEM competition.
This year the Nobel Prize in Physiology or Medicine was awarded to Victor Ambros and Gary Ruvkun, two scientists credited with discovering microRNA and its role in post-transcriptional gene regulation. Now, 30 years after their finding, you can do microRNA experiments with ease by using our products designed to make discovering new things simple and hassle-free.
This summer we got to collaborate with a fun project organized by the MINT Campus in Germany. Not only does MINT campus inspire children and young people about these topics but it also introduces young people to sustainable, innovative developments in current research and technology.
Whether you are studying the genetic material of plants, brains or viruses, the experiment usually starts with extracting RNA from the sample material. It would be incredibly useful to get all the RNA extracted instead of it getting destroyed by the RNases before even starting the cDNA synthesis step. But how can we protect the RNA when RNases are all around us? Let’s find out!