Farnesyl pyrophosphate synthase (FPPS) is the major molecular target of nitrogen-containing bisphosphonates (N-BPs), used clinically as bone resorption inhibitors.
Iron uptake associated enterochelin biosynthesis, periplasmic binding proteins and targets of nitrogen assimilation regulator Nac were relatively down-regulated in the static conditions compared to cidal.
Two different techniques of Monte Carlo simulation are used to study the impact of parameter variability on target variables of nitrogen dynamics on the field scale.
In addition, in photosynthetic organisms NAGK is the target of the nitrogen-signalling protein PII.
FPPS has been confirmed as the primary molecular target of the nitrogen-containing bisphosphonates (N-BPs) that are potent inhibitors of osteoclastic activity [6].
Amorphous carbon nitride (CNx) films were grown on silicon substrates by ArF laser ablation (PLD) of a graphite target in presence of nitrogen at various gas pressures.
Among the key recommendations is the commitment to meeting the water quality targets of reducing nitrogen runoff to the reef by up to 80%, and sediment runoff by up to 50% by 2025, in key catchments such as the Wet Tropics and Burdekin.
Protein nitration has been suggested to be a final target of highly reactive nitrogen oxide intermediates (e.g. peroxynitrite) formed in reactions between NO and oxygen-derived species such as superoxide.
Coatings were grown employing a WC (6N) target with nitrogen as gas of work and exploring the effect of the number of pulses on the plane orientations and phase transition by means of X ray diffraction (XRD).
Similarly, kinetics and poisoning phenomena of the titanium target by nitrogen and oxygen were investigated from real time measurements of the target potential and total sputtering pressure.
Zn3N2 thin films were prepared by RF magnetron sputtering of Zn target in nitrogen-argon mixture of gases at substrate temperature of 300 °C.
