mhurhangee/ep-ind-claims huggingface dataset:
A first network element comprising: a memory storing computer-readable instructions; and at least one processor configured to execute the computer-readable instructions to cause the first network element to, obtain user equipment-side, UE-side parameter values from a user space of a user equipment, UE, the UE-side parameter values being at least one of values determined by the UE and values known by the UE, wherein the UE-side parameter values include at least power-related information, convert a first data stream received from a second network element into multiple second data streams over multiple data communication paths between the first network element and the UE, and allocate the multiple second data streams to at least one of the multiple data communication paths based on at least the power-related information, wherein allocating the multiple second data streams is performed by changing a configuration of another one of the multiple data communication paths if the power-related information of the UE is below a threshold level. a memory storing computer-readable instructions; and at least one processor configured to execute the computer-readable instructions to cause the first network element to, obtain user equipment-side, UE-side parameter values from a user space of a user equipment, UE, the UE-side parameter values being at least one of values determined by the UE and values known by the UE, wherein the UE-side parameter values include at least power-related information, convert a first data stream received from a second network element into multiple second data streams over multiple data communication paths between the first network element and the UE, and allocate the multiple second data streams to at least one of the multiple data communication paths based on at least the power-related information, wherein allocating the multiple second data streams is performed by changing a configuration of another one of the multiple data communication paths if the power-related information of the UE is below a threshold level. obtain user equipment-side, UE-side parameter values from a user space of a user equipment, UE, the UE-side parameter values being at least one of values determined by the UE and values known by the UE, wherein the UE-side parameter values include at least power-related information, convert a first data stream received from a second network element into multiple second data streams over multiple data communication paths between the first network element and the UE, and allocate the multiple second data streams to at least one of the multiple data communication paths based on at least the power-related information, wherein allocating the multiple second data streams is performed by changing a configuration of another one of the multiple data communication paths if the power-related information of the UE is below a threshold level.
A fuel metering unit, comprising: a metering valve, comprising: a valve body movably disposed within a valve housing, the valve body defining a first bore that extends from a first valve body end towards a second valve body end along a first axis and a first window that extends through the valve body along a second axis; and characterized by: a sensor extending at least partially through the valve housing and facing towards the first window, the sensor being arranged to provide a signal indicative of a position of the first window relative to the sensor; and further comprising: a controller arranged to receive the signal, the controller programmed to output for display a state of the metering valve based on the signal. a metering valve, comprising: a valve body movably disposed within a valve housing, the valve body defining a first bore that extends from a first valve body end towards a second valve body end along a first axis and a first window that extends through the valve body along a second axis; and characterized by: a sensor extending at least partially through the valve housing and facing towards the first window, the sensor being arranged to provide a signal indicative of a position of the first window relative to the sensor; and further comprising: a controller arranged to receive the signal, the controller programmed to output for display a state of the metering valve based on the signal.
A transition (100, 300) from microstrip to closed waveguide, comprising a closed waveguide with opposing first and second (105, 105', 105") Interior surfaces connected by opposing side walls (115, 116) whose height (h 1, h 2, h 3, h N) is the shortest distance between said interior surfaces, the transition (100, 300) also comprising a microstrip structure (130, 135, 110) which protrudes into an opening at one end of the closed waveguide, the microstrip structure comprising a microstrip conductor arranged on a dielectric layer which in turn is arranged on said first interior surface of the waveguide, the microstrip conductor comprising and being terminated inside the closed waveguide by means of a patch which is at least twice the width of the rest of the microstrip conductor and which has a length smaller than the shortest distance between the side walls and greater than 1/8 of the shortest distance between the side walls, the side walls having a common height which varies stepwise from a lowest height (h 1) along the distance that the microstrip conductor (130, 135) extends into the closed waveguide to at least one other height, with the first transition from the lowest height (h 1) to at least one other height being perpendicular to the first and second interior surfaces, said lowest height (h 1) being less than half the greatest height (h N) of the side walls beyond the distance that the microstrip conductor (130, 135) extends Into the closed waveguide, with the height (h 1) of the side walls (115, 116) along the distance that the microstrip conductor (130, 135) protrudes into the closed waveguide being λ/8 or less, where λ is the free-space wave length corresponding to the operational frequency of the transition, with the conducting patch being galvanically connected to the first interior surface by means of at least one via connection (125, 126, 127, 128, 129), the via or vias forming a quarter wave resonator together with the patch.
A makeup base for skin applied to the skin before applying a makeup cosmetic for skin, the makeup base comprising a water-containing aqueous phase as a continuous phase and containing (a) a vinyl acetate homopolymer (b) Polyhydric alcohol, and (c) a hydrophilic nonionic surfactant having an HLB of 8 or higher, wherein (a) the vinyl acetate homopolymer is 0.5 to 7 mass% in the makeup base and is dispersed as particles in the aqueous phase, (b) the polyhydric alcohol is 0.5 to 5.5 parts by mass relative to 1 part by mass of (a) the vinyl acetate homopolymer and (c) the hydrophilic nonionic surfactant is 1 to 5 mass % in the makeup base. (a) a vinyl acetate homopolymer (b) Polyhydric alcohol, and (c) a hydrophilic nonionic surfactant having an HLB of 8 or higher, (a) the vinyl acetate homopolymer is 0.5 to 7 mass% in the makeup base and is dispersed as particles in the aqueous phase, (b) the polyhydric alcohol is 0.5 to 5.5 parts by mass relative to 1 part by mass of (a) the vinyl acetate homopolymer and (c) the hydrophilic nonionic surfactant is 1 to 5 mass % in the makeup base.
A catalyst for purifying exhaust gas, the catalyst comprising: a support substrate; and a coating layer being formed on a support-substrate surface, the coating layer comprising: a porous oxide support; and noble metals being loaded on the porous oxide support and including Pt and Rh at least; the catalyst for purifying exhaust gas being characterized in that: Pt is loaded in such an amount that a loading amount per 1 liter of the support substrate exceeds 0.75 g on an exhaust-gas upstream side of the coating layer, and additionally Rh is loaded; a loading density of Rh in the coating layer is higher on an exhaust-gas downstream side than on the exhaust-gas upstream side; wherein a ratio of a loading amount of Rh on the exhaust-gas upstream side with respect to a loading amount of Rh on the exhaust-gas downstream side is 0.9 or less; wherein the ratio of the loading amount of Pt on the exhaust-gas upstream side with respect to the loading amount of Pt on the exhaust-gas downstream side is 1.4 or more; and wherein the loading amount of Pt on the entire catalyst is 0.5 to 3 g/L. Pt is loaded in such an amount that a loading amount per 1 liter of the support substrate exceeds 0.75 g on an exhaust-gas upstream side of the coating layer, and additionally Rh is loaded; a loading density of Rh in the coating layer is higher on an exhaust-gas downstream side than on the exhaust-gas upstream side; wherein a ratio of a loading amount of Rh on the exhaust-gas upstream side with respect to a loading amount of Rh on the exhaust-gas downstream side is 0.9 or less; wherein the ratio of the loading amount of Pt on the exhaust-gas upstream side with respect to the loading amount of Pt on the exhaust-gas downstream side is 1.4 or more; and wherein the loading amount of Pt on the entire catalyst is 0.5 to 3 g/L.
A computer-implemented method of inserting a virtual fiducial marker in a 3D image data set of a subject and using the virtual fiducial marker to find the starting position for a subsequent 2D to 3D image registration, the method comprising: i) locating at least one fiducial marker in at least two 2D images of the subject, the 2D images having been obtained from different viewing angles; ii) registering the 3D image data set with the 2D images; iii) determining the location of a point within the 3D image data set corresponding to the determined locations of the fiducial marker in the at least two 2D images; iv) marking the 3D image data set so as to indicate a virtual fiducial marker at the determined point; and v) using the virtual fiducial marker to find the starting position for a subsequent 2D to 3D image registration process. i) locating at least one fiducial marker in at least two 2D images of the subject, the 2D images having been obtained from different viewing angles; ii) registering the 3D image data set with the 2D images; iii) determining the location of a point within the 3D image data set corresponding to the determined locations of the fiducial marker in the at least two 2D images; iv) marking the 3D image data set so as to indicate a virtual fiducial marker at the determined point; and v) using the virtual fiducial marker to find the starting position for a subsequent 2D to 3D image registration process.
An insect pest disinfestation lighting device comprising a light source (24, 25), the insect pest disinfestation lighting device comprising a first light source configured to illuminate a plant with first light having a wavelength of 260 to 305 nm, a second light source configured to illuminate a plant having a wavelength of 490 to 565 nm, and a timer electrically connected to the first and second light sources (24, 25) configured to control a power supply to the first and second light sources (24, 25) at different set times.
A machine for winding a fiber texture onto an impregnation mandrel, the machine comprising:. a take-up mandrel suitable for storing and unwinding a fiber texture, the take-up mandrel having a substantially horizontal axis of rotation;. an impregnation mandrel suitable for receiving superposed layers of the fiber texture unwound from the take-up mandrel, the impregnation mandrel having an axis of rotation that is substantially horizontal and parallel to the axis of rotation of the take-up mandrel;. a camera mounted in a light box that is adjusted to the profile of said impregnation mandrel and placed as close as possible to said fiber texture, and suitable, being directed towards the fiber texture and the impregnation mandrel, for examining the passage of warp tracer yarns (50, 52, 54, 56, 58) and weft tracer yarns present in the fiber texture;. an image-analysis module suitable for initially determining the positions of the intersections of warp tracer yarns with the successive weft tracer yarns and then for comparing these determined positions with corresponding theoretical positions for the intersections of reference warp and weft tracer yarns, and finally, for determining an offset value for the fiber texture for each of these intersections;. electric motors (22, 34) suitable for driving the mandrels in rotation about their respective axes of rotation; and. a control unit suitable for controlling the electric motors for driving rotation of the mandrels.. a take-up mandrel suitable for storing and unwinding a fiber texture, the take-up mandrel having a substantially horizontal axis of rotation;. an impregnation mandrel suitable for receiving superposed layers of the fiber texture unwound from the take-up mandrel, the impregnation mandrel having an axis of rotation that is substantially horizontal and parallel to the axis of rotation of the take-up mandrel;. a camera mounted in a light box that is adjusted to the profile of said impregnation mandrel and placed as close as possible to said fiber texture, and suitable, being directed towards the fiber texture and the impregnation mandrel, for examining the passage of warp tracer yarns (50, 52, 54, 56, 58) and weft tracer yarns present in the fiber texture;. an image-analysis module suitable for initially determining the positions of the intersections of warp tracer yarns with the successive weft tracer yarns and then for comparing these determined positions with corresponding theoretical positions for the intersections of reference warp and weft tracer yarns, and finally, for determining an offset value for the fiber texture for each of these intersections;. electric motors (22, 34) suitable for driving the mandrels in rotation about their respective axes of rotation; and. a control unit suitable for controlling the electric motors for driving rotation of the mandrels.
A network search method for a terminal, comprising steps of: (a) acquiring, by a terminal, geographical location information of the terminal, and determining geographical environment in which the terminal is located according to the acquired geographical location information; and (b) setting, by the terminal, a network search time interval corresponding to the geographical environment according to the determined geographical environment; wherein the step (a) comprises: acquiring, by the terminal, the geographical location information of the terminal by using a positioning system; and determining, by the terminal, the geographical environment in which the terminal is located according to the acquired geographical location information and a map that is stored locally on the terminal. (a) acquiring, by a terminal, geographical location information of the terminal, and determining geographical environment in which the terminal is located according to the acquired geographical location information; and (b) setting, by the terminal, a network search time interval corresponding to the geographical environment according to the determined geographical environment; wherein the step (a) comprises: acquiring, by the terminal, the geographical location information of the terminal by using a positioning system; and determining, by the terminal, the geographical environment in which the terminal is located according to the acquired geographical location information and a map that is stored locally on the terminal. acquiring, by the terminal, the geographical location information of the terminal by using a positioning system; and determining, by the terminal, the geographical environment in which the terminal is located according to the acquired geographical location information and a map that is stored locally on the terminal.
A continuous press arrangement for manufacture of building panels, such as floor or wall panels, comprising: an upper rotatable inlet drum connected to an upper rotatable outlet drum via an upper continuous press belt; a lower rotatable inlet drum connected to a lower rotatable outlet drum via a lower continuous press belt; said upper and lower press belts (40, 41) configured to form a product path there between for feeding a product in a feeding direction in response to rotation of one or more of said drums (42, 43, 44, 45); an upper and a lower press table each comprising a displaceable pressure cushion extending along at least a portion of said path and configured to facilitate a pressure zone between said press table (51, 51') and the press belt (40, 41); wherein said press table (51, 51') comprises a displacement groove and said pressure cushion is configured to be at least partially received in said displacement groove, wherein said pressure cushion comprises a friction seal element configured to be in contact with the press belt, wherein said pressure cushion comprises a seal frame configured to be received in said displacement groove, wherein the continuous press arrangement comprises a seal member, wherein the seal frame is configured to be connected to the seal member, configured to seal against the pressure applied to said displacement groove, such as against a fluid creating the pressure, and wherein the seal member comprises a substantially U-shaped cross-section which is upwards open towards an inner wall of the displacement groove. an upper rotatable inlet drum connected to an upper rotatable outlet drum via an upper continuous press belt; a lower rotatable inlet drum connected to a lower rotatable outlet drum via a lower continuous press belt; said upper and lower press belts (40, 41) configured to form a product path there between for feeding a product in a feeding direction in response to rotation of one or more of said drums (42, 43, 44, 45); an upper and a lower press table each comprising a displaceable pressure cushion extending along at least a portion of said path and configured to facilitate a pressure zone between said press table (51, 51') and the press belt (40, 41); wherein said press table (51, 51') comprises a displacement groove and said pressure cushion is configured to be at least partially received in said displacement groove, wherein said pressure cushion comprises a friction seal element configured to be in contact with the press belt, wherein said pressure cushion comprises a seal frame configured to be received in said displacement groove, wherein the continuous press arrangement comprises a seal member, wherein the seal frame is configured to be connected to the seal member, configured to seal against the pressure applied to said displacement groove, such as against a fluid creating the pressure, and wherein the seal member comprises a substantially U-shaped cross-section which is upwards open towards an inner wall of the displacement groove.
A gluing device, comprising: a sheet guide which guides a corrugated fiberboard; a basal part which has a fixed relative position with respect to the sheet guide; a support part which is disposed so as to be relatively movable with respect to the basal part; a glue gun which is fixed at a position of the support part facing the sheet guide, and comes into contact with and applies glue to a glued portion within a seam margin at a side end of the corrugated fiberboard passing through the sheet guide; a first energizing mechanism which is disposed between the basal part and the support part and energizes the support part in a direction toward the sheet guide; a second energizing mechanism which is disposed between the basal part and the support part and energizes the support part in a direction away from the sheet guide; the gluing device being characterised in that a position adjustment mechanism which is disposed between the first energizing mechanism and the basal part steplessly adjusts a position of the support part in a direction along a direction of a force exerted by the first energizing mechanism, and adjusts a gap between the glue gun and the sheet guide. a sheet guide which guides a corrugated fiberboard; a basal part which has a fixed relative position with respect to the sheet guide; a support part which is disposed so as to be relatively movable with respect to the basal part; a glue gun which is fixed at a position of the support part facing the sheet guide, and comes into contact with and applies glue to a glued portion within a seam margin at a side end of the corrugated fiberboard passing through the sheet guide; a first energizing mechanism which is disposed between the basal part and the support part and energizes the support part in a direction toward the sheet guide; a second energizing mechanism which is disposed between the basal part and the support part and energizes the support part in a direction away from the sheet guide; the gluing device being characterised in that a position adjustment mechanism which is disposed between the first energizing mechanism and the basal part steplessly adjusts a position of the support part in a direction along a direction of a force exerted by the first energizing mechanism, and adjusts a gap between the glue gun and the sheet guide.
A method of manufacturing a thin film electronic device, the method comprising: - applying a first plastic coating directly to a rigid carrier substrate; - forming thin film electronic elements over the first plastic coating; - applying a second plastic coating over the thin film electronic elements; - forming electrodes over the second plastic coating, each electrode forming a circuit together with at least one associated electronic element, and the electrode including a portion lying directly over the associated electronic element, spaced by the second plastic coating; and - releasing the rigid carrier substrate from the first plastic coating, by a laser release process, wherein applying the first plastic coating comprises: - applying a first plastic layer (PI-1); - forming a metal pattern over the first plastic layer having pattern portions aligned with the positions in which the thin film electronic elements are subsequently formed; and - applying a second plastic layer (PI-2) over the metal pattern. - applying a first plastic coating directly to a rigid carrier substrate; - forming thin film electronic elements over the first plastic coating; - applying a second plastic coating over the thin film electronic elements; - forming electrodes over the second plastic coating, each electrode forming a circuit together with at least one associated electronic element, and the electrode including a portion lying directly over the associated electronic element, spaced by the second plastic coating; and - releasing the rigid carrier substrate from the first plastic coating, by a laser release process, - applying a first plastic layer (PI-1); - forming a metal pattern over the first plastic layer having pattern portions aligned with the positions in which the thin film electronic elements are subsequently formed; and - applying a second plastic layer (PI-2) over the metal pattern.