London, October 17 : Tel Aviv University researchers have developed a new computational approach that may one day help gain a clearer picture of the metabolic processes of individual organs, such as the liver, heart and brain.
The new model can be potentially used in the future to refine the diagnosis of various metabolic-related disorders, aid in treatment, and develop new drugs.
Experts at the university's Blavatnik School of Computer Science, who have created the model, have revealed that it integrates tissue-specific information from healthy or diseased organs, and matches it to an existing model of the global human metabolic network to predict metabolic tissue behaviour.
"(The results) establish a computational basis for the genome-wide study of normal and abnormal human metabolism in a tissue-specific manner," Nature Biotechnology quoted Professor Eytan Ruppin as saying.
The computational model describes metabolism in ten different human tissues, thereby exposing the functions in the body responsible for metabolism.
The researchers say that it may be helpful in casting light on chemical reactions that allow tissues to grow, maintain their structures, and function and respond to other bodily cues in living organisms.
While the present published focuses on ten specific tissues, the researchers say that the new tool can be applied to other tissues also, and then potentially to entire organs.
"The previous model of human metabolism was a generic one, which did not describe how the metabolism of different tissues work. Now we can provide large scale descriptions as to how tissues metabolize different compounds and how metabolism actually works in individual organs like the heart, liver, brain or pancreas," said computer scientist Tomer Shlomi, a team member.
The Tel Aviv University team are currently trying to create tools for detecting biomarkers that are associated with different diseases.
Their aim is to develop computational methods for identifying novel metabolic biomarkers that may be used for diagnosing an array of genetic metabolic disorders.
The researchers say that their ultimate objective is to help drug developers as they explore new drug targets.
Highlighting the fact that the existing cancer-fighting drugs kill both cancerous and healthy cells, Professor Ruppin said that knowing the metabolism of cancer in different tissues could lead to the development of more effective and targeted.