11 research outputs found
Oxidative stress and reduced responsiveness of challenged circulating leukocytes following pulmonary instillation of metal-rich particulate matter in rats
Electrochemical Nanoengineered Sensors in Infectious Disease Diagnosis
This chapter reports a short review on electrochemical nanoengineered biosensors in infectious disease diagnosis. Early and timely diagnosis of infectious diseases has tremendous medical and social significance which advocates the development of new diagnostic tools. In this chapter, we discussed various electrochemical sensors for detection and diagnosis of tropical or subtropical fevers particularly dengue fever and malaria parasite. We also addressed the several important aspects of biosensors, namely, selectivity, sensitivity, and interference, and also the effect of engineering the nanomaterials (0D, 1D, 2D) on these aspects. In detail, we discussed the various techniques to immobilize the biomolecules on working electrode (glassy carbon, gold electrode, flexible substrates). Further, we discussed the several miniaturized sensing platforms with integrated microfluidic channels which can ensure for development of sensors for point-of-care applications
Time-advanced occurrence of moderate-size earthquakes in a stable intraplate region after a megathrust earthquake and their seismic properties
Safety and efficacy of trastuzumab administered as a 30-min infusion in patients with HER2-positive advanced gastric cancer
Dynamic earthquake rupture modeling considering regional crustal stress conditions in southeastern Korea
Hepatitis C virus upregulates B-cell receptor signaling: a novel mechanism for HCV-associated B-cell lymphoproliferative disorders
Subversion of Innate Defenses by the Interplay between DENV and Pre-Existing Enhancing Antibodies: TLRs Signaling Collapse
Growth hormone is increased in the lungs and enhances experimental lung metastasis of melanoma in DJ-1 KO mice
Overview of the KoRIA Facility for Rare Isotope Beams
The Korea Rare Isotope Accelerator, currently referred to as KoRIA, is briefly presented. The KoRIA facility is aimed to enable cutting-edge sciences in a wide range of fields. It consists of a 70 kW isotope separator on-line (ISOL) facility driven by a 70 MeV, 1 mA proton cyclotron and a 400 kW in-flight fragmentation (IFF) facility. The ISOL facility uses a superconducting (SC) linac for post-acceleration of rare isotopes up to about 18 MeV/u, while the SC linac of IFF facility is capable of accelerating uranium beams up to 200 MeV/u, 8 p mu A and proton beams up to 600 MeV, 660 mu A. Overall features of the KoRIA facility are presented with a focus on the accelerator design.close5