So far there is a programming language for living cells. According to Christopher Voigt, a lead biologist at the Massachusetts Institute of Technology, Cambridge, there is new software that will automate the design of DNA circuits.
Cello, the new software, works in a clear manner. First, the user identifies a specific cell and decides what it should do. For instance, they may want it to signal metabolic activities in the stomach and respond by generating a drug. For this to work, they have to enter certain commands to clarify how these actions should be done by Verilog—a programming language used to create silicon circuits by electricians. Cello then interprets this data to create a DNA chain in a cell which will help execute the user’s demands.
Voigt and fellow synthetic biologists are creating user interfaces that will let users write a program and get many different DNA sequences in return. Cello will be a web-based interface, which could also be downloaded via an open source code from GitHub.
As Voigt noted, Cello entailed ten years of hard labor. Creating biological parts that were similar to electronic circuits that could then be interlinked to use harmoniously Verilog to produce anticipated outcomes was entirely complex.
Although the researchers in Voigt’s team arranged DNA analogues of electronic circuits in a manner that worked in simple situations, they often failed to accomplish the same when using complicated circuits. Luckily the cause has been established, thanks to the presence of gene synthesis technologies.
All the sixty design created with Cello were tested, and forty-five of them worked perfectly immediately. He estimates that making sixty designs with Cello would take a week. Adam Arkin, a synthetic biologist at the University of California, who participated in this study, thinks Cello is breakthrough software that will take the design of new biological circuits to the next level.
Story Via; Nature.com / Feature image; Trunews