The soil bacterium and metabolic engineering platform Pseudomonas putida tolerates high
levels of endogenous and exogenous oxidative stress, yet the ultimate reason of such …

As a frequent inhabitant of sites polluted with toxic chemicals, the soil bacterium and plant-
root colonizer Pseudomonas putida can tolerate high levels of endogenous and exogenous …

Adenosine phosphate and NAD cofactors play a vital role in the operation of cell
metabolism, and their levels and ratios are carefully regulated in tight ranges. Perturbations …

Pseudomonas species thrive in different nutritional environments and can catabolize
divergent carbon substrates. These capabilities have important implications for the role of …

To counteract oxidative stress and reactive oxygen species (ROS), bacteria evolved various
mechanisms, primarily reducing ROS through antioxidant systems that utilize cofactor …

Pseudomonas putida efficiently utilizes many different carbon sources without the formation
of byproducts even under conditions of stress. This implies a high degree of flexibility to …

Pseudomonas putida is recognized as a very promising strain for industrial application due
to its high redox capacity and frequently observed tolerance towards organic solvents. In this …

Polyhydroxyalkanoates (PHAs) are polyesters produced by numerous microorganisms for
energy and carbon storage. Simultaneous synthesis and degradation of PHA drives a …

The itinerary followed by Pseudomonas putida from being a soil-dweller and plant colonizer
bacterium to become a flexible and engineer-able platform for metabolic engineering stems …

There is mounting evidence that metabolic reprogramming is critical for the survival of
organisms exposed to changing and stressed environments. Using the soil microbe …