Abstract: This disclosure describes a system, method, and non-transitory computer readable media for an ultrasound probe configured to capture ultrasound images of an examination region. The system includes a first set of one or more sensors coupled to the ultrasound probe and configured to estimate a first positional information associated with the ultrasound probe. The system includes a second set of one or more sensors coupled to the ultrasound probe and configured to capture electromagnetic force (EMF) measurements in the examination region to estimate a second positional information associated with the ultrasound probe. The second positional information is used to calibrate the first set of one or more sensors. The system includes a controller configured to use at least one of (i) the first positional information, or (ii) the second positional information to generate a reconstruction of the examination region based on ultrasound images captured by the ultrasound probe.

Abstract: The invention relates to a microfluidic system based on active control of flow resistance and balancing pressures in microfluidic channels and an improved method for disposable microfluidic devices and cartridges for use in, but not limited to, in-vitro diagnostics. The microfluidic system and device of the invention does not utilize mechanical moving parts to control the fluid flow and has no external fluidic connection to the instrument or fluidics controller.

Abstract: A system for removing particulate matter from the gas in a gas discharge laser includes one or more nonwoven screens which are optimized for, among others, manufacturability and feature integration. The nonwoven screens are configured for precisely directing the flow to optimize the separation of particles from the gas flow and provide sufficient surface area for improved dust adherence.

Abstract: A light source apparatus (200) includes a gas discharge stage (210) and a metal fluoride trap (300). The gas discharge stage includes an optical amplifier (206) and a set of optical elements (250, 260). The optical amplifier includes a chamber (211) configured to hold a gas discharge medium (213), the gas discharge medium outputting a light beam. The set of optical elements is configured to form an optical resonator around the optical amplifier. The metal fluoride trap is configured to trap metal fluoride dust generated from the gas discharge stage. The metal fluoride trap includes an electrostatic precipitator (320) and a packed-bed filter (400, 402, 404) disposed around the electrostatic precipitator. The packed-bed filter includes a plurality of beads configured (406, 408) to absorb metal fluoride dust (208).

Abstract: The invention relates to a microfluidic system based on active control of flow resistance and balancing pressures in microfluidic channels and an improved method for disposable microfluidic devices and cartridges for use in, but not limited to, in-vitro diagnostics. The microfluidic system and device of the invention does not utilize mechanical moving parts to control the fluid flow and has no external fluidic connection to the instrument or fluidics controller.

Abstract: The invention relates to a body illumination system comprising one or more light sources, said light sources being configured for emitting light in a wavelength range of 410-470 nm. The system is configured for exposing to said emitted light a surface area of 0.5-2.0 m2 of said body such that the power density of said emitted light on said surface area of said body is in the range of 20-120 mW/cm2, more preferably 30-100 mW/cm2. Alternatively, the system is configured for exposing to said emitted light a surface area of 10-60 cm? of said body such that the power density of said emitted light on said surface area of said body is in the range of 10-30 mW/cm2. The body illumination system is for use in treating physical dysfunction, such as hypertension and erectile dysfunction.

Abstract: A system for removing particulate matter from the gas in a gas discharge laser includes one or more nonwoven screens which are optimized for, among others, manufacturability and feature integration. The nonwoven screens are configured for precisely directing the flow to optimize the separation of particles from the gas flow and provide sufficient surface area for improved dust adherence.

Abstract: A method of generating extreme ultraviolet radiation, wherein the radiant medium is a plasma generated by processing a basic material, and the basic material distribution of the radiant medium consists at least of one halogenide of the metals lithium (Li), indium (In), tin (Sn), antimony (Sb), tellurium (Te), aluminum (Al) and/or a halogen 5 and/or an inert gas, with the exception of halogenides on the basis of lithium (Li) and chlorine (Cl) as well as fluorine (F).

Abstract: The invention relates to a lighting device comprising a lamp comprising a burner with an ionizable filling and an amount of mercury contained herein, having at least one mercury absorbing/adsorbing and/or blocking means located outside the burner for the fixation of mercury in case of an explosion of the burner.

Abstract: A high-pressure gas discharge (HID, high intensity discharge) lamp is described, having a discharge vessel (1) that contains a metal that is applied at least to parts of those regions of the feedthroughs and/or walls of the discharge vessel (1) at which condensation of ingredients of the gas filling may occur as a result of a temperature sink that occurs when the lamp is in a state of operation. In this way, it is possible to at least largely prevent not only chemical interactions between ingredients of the gas filling (particularly the metal halides) and the relevant regions of the feedthroughs or walls at which, due to the lower temperature of these regions, the ingredients condense, but also losses of ingredients of this kind from the gas filling. This in turn means that there is no risk of any damage to the lamp or of any degradation of its lumen maintenance.

Abstract: A method of generating extreme ultraviolet radiation, wherein the radiant medium is a plasma generated by processing a basic material, and the basic material distribution of the radiant medium consists at least of one halogenide of the metals lithium (Li), indium (In), tin (Sn), antimony (Sb), tellurium (Te), aluminum (Al) and/or a halogen 5 and/or an inert gas, with the exception of halogenides on the basis of lithium (Li) and chlorine (Cl) as well as Fluorine (F).

Abstract: A low-pressure mercury vapor discharge lamp is provided with a discharge vessel (10) enclosing a discharge space (11) containing a filling of mercury and a rare gas, an amalgam (63) which communicates with the discharge space (11), and means for maintaining an electric discharge in the discharge vessel (10). The amalgam (63) comprises a Bi:Sn content in the range of 80:20≦Bi:Sn≦20:80, a Pb content in the range of 0.7<Pb≦12 at % and a Hg content in the range of 0.05≦Hg≦2 at %. For compact fluorescent discharge lamps, the amalgam (63) preferably comprises 70:30≦Bi:Sn≦30:70, 1≦Pb≦10 at % and 0.25≦Hg≦1.2 at %. For electrodeless low-pressure mercury vapor discharge lamps, the amalgam preferably comprises 70:30≦Bi:Sn≦30:70, 1≦Pb≦10 at % and 0.05≦Hg≦0.5 at %.

Abstract: An electrodeless high pressure discharge lamp contains a halide or oxyhalide of W, Ta, Re, or rhenium oxide in such a quantity that a supersaturated metal vapor arises in the discharge, by which metal particles are formed. Owing to their high temperature these particles generate thermal emission. The lamp has a high color temperature and a high color rendering index.