27 research outputs found
Role of Innate Immunity in the Pathogenesis of Chronic Rhinosinusitis: Progress and New Avenues
Chronic rhinosinusitis is a heterogeneous and multifactorial disease with unknown etiology. Aberrant responses to microorganisms have been suggested to play a role in the pathophysiology of the disease. Research has focused on the presence, detection, response to, and eradication of these potential threats. Main topics seem to center on the contribution of structural cells such as epithelium and fibroblasts, on the consequences of activation of pattern-recognition receptors, and on the role of antimicrobial agents. This research should be viewed not only in the light of a comparison between healthy and diseased individuals, but also in a comparison between patients who do or do not respond to treatment. New players that could play a role in the pathophysiology seem to surface at regular intervals, adding to our understanding (and the complexity) of the disease and opening new avenues that may help fight this incapacitating disease
XRD studies of Nb/Sapphire(001) thin films deposited with ultra-high-vacuum cathodic arc technique
Development and applications of a low-temperature differential thermal analyzer (77 < T, K < 330)
Application of Oxyreactive Thermal Analysis to the examination of organic matter associated with rocks
Congenital, Spontaneously Regressing, Histiocytosis: Case Report and Review of the Literature
Effect of current on multiple pinches of Xe plasma in capillary discharge
The effect of the current on the pinching process of Xe plasma columns pumped by
capillary discharge has been studied theoretically and experimentally. An extreme
ultraviolet emission monitor (E-Mon, 13.5 nm in 2% bandwidth) was applied to record the
temporal evolution of the 13.5 nm (2% bandwidth) emission. According to real current
waveforms, the pinching processes were simulated with the snow-plow model. Both the
experimental and the simulation results showed that intensity of the 13.5 nm emission
reached the maximum when the plasma was pinched to the minimum radius. The E-Mon signals
and the simulations indicated that under different amplitudes of the currents the plasma
could be pinched more times and faster with higher discharge current
