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Varun B. Kothamachu

Researcher at Babraham Institute

Publications -  11
Citations -  216

Varun B. Kothamachu is an academic researcher from Babraham Institute. The author has contributed to research in topics: Histidine kinase & The Internet. The author has an hindex of 7, co-authored 11 publications receiving 180 citations. Previous affiliations of Varun B. Kothamachu include University of Exeter & European Bioinformatics Institute.

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BioModels: expanding horizons to include more modelling approaches and formats.

TL;DR: The new portal broadens the scope of models accepted in BioModels and supports collaborative model curation which is crucial for model reproducibility and sharing and the potential benefit they offer to the users over the previous system is discussed.
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Unlimited multistability and Boolean logic in microbial signalling.

TL;DR: A mathematical framework for analysing microbial systems with multi-domain HK receptors known as hybrid and unorthodox HKs is developed and it is found that such systems, when sensing distinct signals, can readily implement Boolean logic functions on these signals.
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On-line optimal input design increases the efficiency and accuracy of the modelling of an inducible synthetic promoter

TL;DR: In this article, the authors considered an inducible promoter in the yeast S. cerevisiae and compared the performance of standard (e.g., step inputs) and optimally designed experiments for parameter inference.
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Phosphate sink containing two-component signaling systems as tunable threshold devices

TL;DR: These findings show that the one HK-two RR motif allows bacteria and yeast to implement tunable switch-like signal processing and provides an ideal basis for developing threshold devices for synthetic biology applications.
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Phosphorelays provide tunable signal processing capabilities for the cell.

TL;DR: An analytical expression is derived that relates the shape of the signal- response relationship in a relay to the kinetic rates of forward, reverse phosphorylation and hydrolysis reactions, and it is found that a specific topology also observed in nature can satisfy these conditions in such a way to allow plasticity among hyperbolic and sigmoidal signal-response relationships.