mhurhangee/ep-ind-claims huggingface dataset:
A cap comprising: an inner housing comprising a first top wall, an essentially cylindrical first sidewall, and an open bottom formed by said first sidewall with an opening to an inner cavity within said inner housing for receiving a hub of a needleless connector, an outer housing comprising an essentially cylindrical second side wall configured to essentially surround said first sidewall; and a support structure connecting said first sidewall to said second sidewall and forming an open space extending between said inner housing and said outer housing allowing air to pass between said outer housing and said inner housing via said open space, characterized in that an outer locking housing comprising a third top wall configured above said first top wall and comprising at least one opening extending through said third top wall allowing said air passing through said open space extending between said inner housing and said outer housing to pass through said outer locking housing, and an essentially cylindrical third side wall configured to essentially surround said second sidewall; wherein said outer locking housing interfaces with said outer housing whereby a rotational movement of said outer locking housing is transferred to a rotational movement of said inner housing and said outer housing in the same rotational direction when said first top wall and said third top wall are urged toward each other and at least a first portion of an outer surface of said first top wall and at least a second portion of an inner surface of said third top wall engage. an inner housing comprising a first top wall, an essentially cylindrical first sidewall, and an open bottom formed by said first sidewall with an opening to an inner cavity within said inner housing for receiving a hub of a needleless connector, an outer housing comprising an essentially cylindrical second side wall configured to essentially surround said first sidewall; and a support structure connecting said first sidewall to said second sidewall and forming an open space extending between said inner housing and said outer housing allowing air to pass between said outer housing and said inner housing via said open space, characterized in that an outer locking housing comprising a third top wall configured above said first top wall and comprising at least one opening extending through said third top wall allowing said air passing through said open space extending between said inner housing and said outer housing to pass through said outer locking housing, and an essentially cylindrical third side wall configured to essentially surround said second sidewall; wherein said outer locking housing interfaces with said outer housing whereby a rotational movement of said outer locking housing is transferred to a rotational movement of said inner housing and said outer housing in the same rotational direction when said first top wall and said third top wall are urged toward each other and at least a first portion of an outer surface of said first top wall and at least a second portion of an inner surface of said third top wall engage.
A screw compressor comprising: a screw rotor, a casing configured to accommodate the screw rotor, and a liquid supply mechanism configured to supply liquid in a compression chamber defined in the casing, wherein the liquid supply mechanism includes a plurality of liquid supply sections causing jet streams of the liquid to collide with each other to be thinned or atomized so as to supply to the compression chamber; and a supply path configured to supply the liquid supplied from an upstream to the plurality of liquid supply sections, the screw compressor characterized in that the plurality of liquid supply sections are directly connected to a side surface of the supply path, the plurality of liquid supply sections includes a first liquid supply section, and a second liquid supply section located downstream of the supply path with respect to the first liquid supply section, the first liquid supply section communicates with a first region of the compression chamber, the second liquid supply section communicates with a second region of the compression chamber, and a gas pressure in the first region is higher than a gas pressure in the second region. a screw rotor, a casing configured to accommodate the screw rotor, and a liquid supply mechanism configured to supply liquid in a compression chamber defined in the casing, wherein the liquid supply mechanism includes a plurality of liquid supply sections causing jet streams of the liquid to collide with each other to be thinned or atomized so as to supply to the compression chamber; and a supply path configured to supply the liquid supplied from an upstream to the plurality of liquid supply sections, the screw compressor characterized in that the plurality of liquid supply sections are directly connected to a side surface of the supply path, the plurality of liquid supply sections includes a first liquid supply section, and a second liquid supply section located downstream of the supply path with respect to the first liquid supply section, the first liquid supply section communicates with a first region of the compression chamber, the second liquid supply section communicates with a second region of the compression chamber, and a gas pressure in the first region is higher than a gas pressure in the second region.
A lithium cobalt oxide based lithium complex in which a coating layer of a compound having a lithium-rich antiperovskite (LiRAP) crystal structure is formed on surfaces of LCO-based particles; wherein the coating layer has a thickness of 1 nm to 100 μm.
Heating device (11, 111, 211) for fluids, the heating device (11, 111, 211) comprising a fluid chamber (13, 112, 213), wherein: - at least one heating element (17, 117, 217) having at least one heating conductor is applied on an outer side of the fluid chamber, - the heating device (11, 111, 211) comprises at least one extensive dielectric insulation layer (20, 119, 219) which essentially covers the at least one heating element, - the dielectric insulation layer (20, 119, 219) has a temperature-dependent electrical resistance, - at least one electrically conductive connection (18, 24, 117, 121) is respectively provided on both sides of the dielectric insulation layer (20, 119, 219), in particular with the same coverage, - at least one of the electrically conductive connections (18, 24, 117, 121) is connected to a control unit (29, 229) or a measuring device in order to detect a leakage current as a temperature-dependent current flow through the dielectric insulation layer (20, 119, 219), - measuring means are provided in order to measure the supply voltage (U N) of the heating device, characterized in that - the control unit of the heating device (11, 111, 211) comprises a controller (29, 229) or microcontroller which comprises an AD input, - the measuring means are connected to the AD input, - the control unit is configured such that the measured supply voltage (U N) is taken into account in an evaluation of the temperature as a function of the leakage current. - at least one heating element (17, 117, 217) having at least one heating conductor is applied on an outer side of the fluid chamber, - the heating device (11, 111, 211) comprises at least one extensive dielectric insulation layer (20, 119, 219) which essentially covers the at least one heating element, - the dielectric insulation layer (20, 119, 219) has a temperature-dependent electrical resistance, - at least one electrically conductive connection (18, 24, 117, 121) is respectively provided on both sides of the dielectric insulation layer (20, 119, 219), in particular with the same coverage, - at least one of the electrically conductive connections (18, 24, 117, 121) is connected to a control unit (29, 229) or a measuring device in order to detect a leakage current as a temperature-dependent current flow through the dielectric insulation layer (20, 119, 219), - measuring means are provided in order to measure the supply voltage (U N) of the heating device, - the control unit of the heating device (11, 111, 211) comprises a controller (29, 229) or microcontroller which comprises an AD input, - the measuring means are connected to the AD input, - the control unit is configured such that the measured supply voltage (U N) is taken into account in an evaluation of the temperature as a function of the leakage current.
A light emitting diode, LED, chip, comprising: an active region between a p-type layer and an n-type layer; a composite high reflectivity layer arranged on the p-type layer and configured to reflect light emitted from said active region, said composite layer comprising: a first layer; one or more second layers (68a, 68b) and a plurality of third layers (70a, 70b) on said first layer, said second layers having an index of refraction different from said third layers, said second and third layers alternating, and each of said third layers having different thicknesses compared to the other of said third layers, wherein said first layer is thicker than the thickest of said second and third layers, and the one of said second and third layers adjacent said first layer being made of different material than said first layer; a reflective layer on the topmost of said second and third layers; and a current spreading layer between the p-type layer and said first layer. an active region between a p-type layer and an n-type layer; a composite high reflectivity layer arranged on the p-type layer and configured to reflect light emitted from said active region, said composite layer comprising: a first layer; one or more second layers (68a, 68b) and a plurality of third layers (70a, 70b) on said first layer, said second layers having an index of refraction different from said third layers, said second and third layers alternating, and each of said third layers having different thicknesses compared to the other of said third layers, wherein said first layer is thicker than the thickest of said second and third layers, and the one of said second and third layers adjacent said first layer being made of different material than said first layer; a reflective layer on the topmost of said second and third layers; and a current spreading layer between the p-type layer and said first layer. a first layer; one or more second layers (68a, 68b) and a plurality of third layers (70a, 70b) on said first layer, said second layers having an index of refraction different from said third layers, said second and third layers alternating, and each of said third layers having different thicknesses compared to the other of said third layers, wherein said first layer is thicker than the thickest of said second and third layers, and the one of said second and third layers adjacent said first layer being made of different material than said first layer; a reflective layer on the topmost of said second and third layers; and a current spreading layer between the p-type layer and said first layer.
An X-ray imaging apparatus comprising: an X-ray tube which is arranged to radiate X-rays toward a subject; an X-ray detector which is arranged to detect X-rays which propagate through the subject; an imaging unit which is arranged to generate images of the subject in addition to x-ray images obtained with the X-ray detector; a marker recognizer which is arranged to recognize a marker located at the part of the subject to be subjected to X-ray imaging from the images of the subject in order to recognize the part of the subject to be subjected to X-ray imaging; and a position controller which is arranged to control respective movements of each of the X-ray tube and the X-ray detector to respective positions for subjecting the part of the subject to X-ray imaging, CHARACTERISED IN THAT the imaging unit is mounted in or on the X-ray tube and operable, while being moved, to generate the images of the subject, and the position controller comprises a position calculator configured to calculate and update the position of the marker in real time, while the X-ray tube moves towards its one of the respective positions. an X-ray tube which is arranged to radiate X-rays toward a subject; an X-ray detector which is arranged to detect X-rays which propagate through the subject; an imaging unit which is arranged to generate images of the subject in addition to x-ray images obtained with the X-ray detector; a marker recognizer which is arranged to recognize a marker located at the part of the subject to be subjected to X-ray imaging from the images of the subject in order to recognize the part of the subject to be subjected to X-ray imaging; and a position controller which is arranged to control respective movements of each of the X-ray tube and the X-ray detector to respective positions for subjecting the part of the subject to X-ray imaging, CHARACTERISED IN THAT the imaging unit is mounted in or on the X-ray tube and operable, while being moved, to generate the images of the subject, and the position controller comprises a position calculator configured to calculate and update the position of the marker in real time, while the X-ray tube moves towards its one of the respective positions.
An optical device for imaging a first, object-side set of mutually parallel bundles of beams onto an image surface, comprising an optical beam expansion unit (161, 162); an optical rearrangement unit (130, 140) configured to rearrange the first set of mutually parallel bundles of beams while maintaining mutually parallelism so as to obtain a second set of mutually parallel bundles of beams; wherein the optical rearrangement unit (130, 140) may be controlled to set rearrangement of the second set of bundles of beams as compared to the first set of bundles of beams; and wherein the optical rearrangement unit (130, 140) comprises mechanically adjustable mirrors; an optical element configured to direct the second set of one or more bundles of beams onto the optical beam expansion unit (161, 162) by means of bundling, so that the optical beam expansion unit (161, 162) is reached by a third set of bundles of beams, the optical beam expansion unit (161, 162) being configured to expand each bundle of beams of the third set so as to obtain a fourth set of expanded bundles of beams; and an optical imaging unit configured to image the fourth set of expanded bundles of beams onto the image surface. an optical beam expansion unit (161, 162); an optical rearrangement unit (130, 140) configured to rearrange the first set of mutually parallel bundles of beams while maintaining mutually parallelism so as to obtain a second set of mutually parallel bundles of beams; wherein the optical rearrangement unit (130, 140) may be controlled to set rearrangement of the second set of bundles of beams as compared to the first set of bundles of beams; and wherein the optical rearrangement unit (130, 140) comprises mechanically adjustable mirrors; an optical element configured to direct the second set of one or more bundles of beams onto the optical beam expansion unit (161, 162) by means of bundling, so that the optical beam expansion unit (161, 162) is reached by a third set of bundles of beams, the optical beam expansion unit (161, 162) being configured to expand each bundle of beams of the third set so as to obtain a fourth set of expanded bundles of beams; and an optical imaging unit configured to image the fourth set of expanded bundles of beams onto the image surface.
A method in a high performance liquid chromatography system, wherein a mobile phase is driven through a stationary phase for separating compounds of a sample fluid comprised in the mobile phase, the system being a gradient system for blending solvents according to a ramping solvent composition defined by entries in a time-table (TTBL), the method comprising: translating the time-table (TTBL) from the time-based regime into the volumetric regime by generating a volumetric table to be used when operating the system, controlling a flow rate of the mobile phase in dependence on a variation in a control value related to a pressure in the mobile phase, by operating the mobile phase drive to be self-controlled with respect to the flow rate, so that a variation in the control value related to a pressure in the mobile phase leads to a variation in the flow rate, and by operating the mobile phase drive to provide an essentially constant output pressure, and determining a value of a retention volume representing a volume of the mobile phase required to elute a respective compound of the sample fluid at least through the stationary phase, by integrating a value of the flow rate over time. translating the time-table (TTBL) from the time-based regime into the volumetric regime by generating a volumetric table to be used when operating the system, controlling a flow rate of the mobile phase in dependence on a variation in a control value related to a pressure in the mobile phase, by operating the mobile phase drive to be self-controlled with respect to the flow rate, so that a variation in the control value related to a pressure in the mobile phase leads to a variation in the flow rate, and by operating the mobile phase drive to provide an essentially constant output pressure, and controlling a flow rate of the mobile phase in dependence on a variation in a control value related to a pressure in the mobile phase, by operating the mobile phase drive to be self-controlled with respect to the flow rate, so that a variation in the control value related to a pressure in the mobile phase leads to a variation in the flow rate, and by operating the mobile phase drive to provide an essentially constant output pressure, and determining a value of a retention volume representing a volume of the mobile phase required to elute a respective compound of the sample fluid at least through the stationary phase, by integrating a value of the flow rate over time.
A portable detection apparatus, comprising: a) a housing; b) a first detector arranged within the housing configured to detect ionizing radiation comprising background radiation and secondary radiation that is emitted by a subject, and is produced by an interaction between primary radiation and the subject; c) a second detector arranged within the housing configured to detect the background radiation; d) a shield arranged within the housing and surrounding the first and second detectors, the shield defining a shield aperture around the first and second detectors for the ionizing radiation to enter the housing; e) a radiation blocking member positioned between the shield aperture and the second detector so that a first portion of the ionizing radiation entering the housing through the shield aperture reaches the first detector without passing through the radiation blocking member and a second portion of the ionizing radiation entering the housing through the shield aperture passes through the radiation blocking member before reaching the second detector, whereby radiation detected by the second detector comprises substantially only the background radiation; and f) a processor module connected to the first and second detectors configured to determine the amount of ionizing radiation detected by the first detector attributable to the secondary radiation. a) a housing; b) a first detector arranged within the housing configured to detect ionizing radiation comprising background radiation and secondary radiation that is emitted by a subject, and is produced by an interaction between primary radiation and the subject; c) a second detector arranged within the housing configured to detect the background radiation; d) a shield arranged within the housing and surrounding the first and second detectors, the shield defining a shield aperture around the first and second detectors for the ionizing radiation to enter the housing; e) a radiation blocking member positioned between the shield aperture and the second detector so that a first portion of the ionizing radiation entering the housing through the shield aperture reaches the first detector without passing through the radiation blocking member and a second portion of the ionizing radiation entering the housing through the shield aperture passes through the radiation blocking member before reaching the second detector, whereby radiation detected by the second detector comprises substantially only the background radiation; and f) a processor module connected to the first and second detectors configured to determine the amount of ionizing radiation detected by the first detector attributable to the secondary radiation.
A laser cutting device, comprising a laser source with one or more of a wavelength within a range from about 2.69 to about 2.80 microns and a wavelength of about 2.94 microns; and a handpiece (400; 500; 600) for laser treating a tissue target surface, comprising: a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface. a laser source with one or more of a wavelength within a range from about 2.69 to about 2.80 microns and a wavelength of about 2.94 microns; and a handpiece (400; 500; 600) for laser treating a tissue target surface, comprising: a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface. a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface.
Packaging, in particular shipping packaging, which is produced from two superimposed and congruent paper layers (11, 12), characterized in that the paper layers are glued together at at least a first of the lateral edges (14, 15) thereof so as to lie on top of one another in a planar manner, and in that the paper layers (11, 12) are jointly wrapped or rolled at second opposite lateral edges (17, 18), wherein the wrapped or rolled edges (17, 18) are fixed by means of a connection or a connecting means.