mhurhangee/ep-ind-claims huggingface dataset:
A gas seal structure comprising: a main seal means that is made of rubber and is disposed between two seal surfaces (2, 3); a sub-seal means that is made of resin and is disposed between the two seal surfaces (2, 3), the sub-seal means being located closer to a higher-pressure region than the main seal means and being provided with a concave groove; and a pressure variation reducing means that is disposed between the main seal means and the sub-seal means and has a variation reducing space connected to a gap formed between the two seal surfaces (2, 3) and having a volume that is able to inhibit occurrence of a blistering phenomenon in the main seal means. a main seal means that is made of rubber and is disposed between two seal surfaces (2, 3); a sub-seal means that is made of resin and is disposed between the two seal surfaces (2, 3), the sub-seal means being located closer to a higher-pressure region than the main seal means and being provided with a concave groove; and a pressure variation reducing means that is disposed between the main seal means and the sub-seal means and has a variation reducing space connected to a gap formed between the two seal surfaces (2, 3) and having a volume that is able to inhibit occurrence of a blistering phenomenon in the main seal means.
Method for operating a navigation device, in particular in a motor vehicle, comprising the steps: - determining a waypoint, located in front, of a route planned by the navigation device, in relation to which navigation information should be output to a user, - identifying by means of the navigation device environmental data concerning the environment of the waypoint at least partially using image data of a camera arranged on the motor vehicle and recording the environment, - identifying at least one reference object located in the environment of the waypoint by image recognition in the image data from the environmental data, - assigning a verbal designation to the reference object, - generating the navigation information comprising the designation, and - acoustically emitting the navigation information; characterised in that a parked vehicle, which is not moving, is identified as the reference object, wherein it is identified whether a movement of the parked vehicle can be anticipated by identifying by means of sensors whether the engine of the parked vehicle is running and/or whether the parked vehicle is located in a parking bay or on a street and/or whether a non-movement of the parked vehicle is observed for an allocated minimum period. - determining a waypoint, located in front, of a route planned by the navigation device, in relation to which navigation information should be output to a user, - identifying by means of the navigation device environmental data concerning the environment of the waypoint at least partially using image data of a camera arranged on the motor vehicle and recording the environment, - identifying at least one reference object located in the environment of the waypoint by image recognition in the image data from the environmental data, - assigning a verbal designation to the reference object, - generating the navigation information comprising the designation, and - acoustically emitting the navigation information;
A ray tracing method comprising: extracting feature information of a received ray, the feature information comprising an origin and a direction of the received ray; determining a group to which the received ray belongs by searching, based on the extracted origin and direction of the received ray, a database in which information of groups, and keys of the groups, are stored; wherein rays with an origin located within a same one of a plurality of predetermined regions of equal size, and with a direction toward a same angular section from among a plurality of predetermined angular sections of equal size dividing an angle range about the origin, are within one group; determining a key of the determined group as the key of the received ray; determining (S830, S930) whether acceleration structure traversal data of a previous ray similar to the received ray is stored in a traversal cache based on the determined key, the previous ray being different to the received ray, wherein the acceleration structure traversal data comprises at least one of data of a node cluster where the previous ray intersects, data of a leaf node (355, 356, 358, 359) where the previous ray intersects, and data of a primitive where the previous ray intersects; and reading (S840, S940) the stored acceleration structure traversal data, and performing image rendering based on the read acceleration structure traversal data, based on a result of the determining. extracting feature information of a received ray, the feature information comprising an origin and a direction of the received ray; determining a group to which the received ray belongs by searching, based on the extracted origin and direction of the received ray, a database in which information of groups, and keys of the groups, are stored; wherein rays with an origin located within a same one of a plurality of predetermined regions of equal size, and with a direction toward a same angular section from among a plurality of predetermined angular sections of equal size dividing an angle range about the origin, are within one group; determining a key of the determined group as the key of the received ray; determining (S830, S930) whether acceleration structure traversal data of a previous ray similar to the received ray is stored in a traversal cache based on the determined key, the previous ray being different to the received ray, wherein the acceleration structure traversal data comprises at least one of data of a node cluster where the previous ray intersects, data of a leaf node (355, 356, 358, 359) where the previous ray intersects, and data of a primitive where the previous ray intersects; and reading (S840, S940) the stored acceleration structure traversal data, and performing image rendering based on the read acceleration structure traversal data, based on a result of the determining.
Pipe heat exchanger (11, 12) for a baking oven, - with a plurality of heat exchanger pipe sections configured to guide a heat carrier fluid, the heat exchanger pipe sections being arranged adjacent to each other in an arrangement plane, - wherein a distance of adjacent pipe sections is smaller than a pipe diameter and greater than 1% of the pipe diameter, - wherein the pipe heat exchanger (11, 12) is configured as a pipe coil heat exchanger, which has: - a first coil line path, formed between a first coil line inlet and a first coil line outlet, and - a second coil line path, formed between a second coil line inlet and a second coil line outlet, - characterized in that 180° deflection sections between two pipe sections of the same coil line path are guided out of the arrangement plane for exactly one of the coil line paths. - with a plurality of heat exchanger pipe sections configured to guide a heat carrier fluid, the heat exchanger pipe sections being arranged adjacent to each other in an arrangement plane, - wherein a distance of adjacent pipe sections is smaller than a pipe diameter and greater than 1% of the pipe diameter, - wherein the pipe heat exchanger (11, 12) is configured as a pipe coil heat exchanger, which has: - a first coil line path, formed between a first coil line inlet and a first coil line outlet, and - a second coil line path, formed between a second coil line inlet and a second coil line outlet, - characterized in that 180° deflection sections between two pipe sections of the same coil line path are guided out of the arrangement plane for exactly one of the coil line paths.
A fusion protein composed of endolysin having the activity of degrading the cell wall of Gram-negative bacteria and a peptide stretch fused to the endolysin at the N- or C-terminus or at both termini, wherein the peptide stretch has an amino acid sequence according to SEQ ID NO: 11.
A method of wireless communication, comprising: determining, by an apparatus in a serving cell, an interference type between a time division duplex, TDD, configuration subframe of the serving cell and a corresponding TDD configuration subframe of a neighboring cell; and setting, by the apparatus, a transmit power for the apparatus in the serving cell based on the interference type, wherein the apparatus is a user equipment, UE, and wherein setting the transmit power comprises: in case the interference type is an uplink-downlink, UL-DL, interference type increasing the transmit power as compared to when the interference type is an uplink-uplink, UL-UL, interference type. determining, by an apparatus in a serving cell, an interference type between a time division duplex, TDD, configuration subframe of the serving cell and a corresponding TDD configuration subframe of a neighboring cell; and setting, by the apparatus, a transmit power for the apparatus in the serving cell based on the interference type, wherein the apparatus is a user equipment, UE, and wherein setting the transmit power comprises: in case the interference type is an uplink-downlink, UL-DL, interference type increasing the transmit power as compared to when the interference type is an uplink-uplink, UL-UL, interference type.
An organic light-emitting diode (OLED) array substrate, including: a display area with OLEDs arranged in arrays; electrostatic discharge lines; and peripheral electrostatic discharge areas comprising conductive areas in contact with a cathode of the OLEDs and electrically connected to the electrostatic discharge lines through switch modules, wherein the electrostatic discharge lines include high-voltage electrostatic discharge lines and low-voltage electrostatic discharge lines; and a conductive area is connected to a high-voltage electrostatic discharge line through first switch modules, and is connected to a low-voltage electrostatic discharge line through second switch modules; characterized in that, the switch modules comprise diode connectd transistors such that when positive electrostatic charges are generated in the conductive area and create a positive electrostatic voltage, the first switch modules are turned on; and when negative electrostatic charges are generated in the conductive area and create a negative electrostatic voltage, the second switch modules are turned on. a display area with OLEDs arranged in arrays; electrostatic discharge lines; and peripheral electrostatic discharge areas comprising conductive areas in contact with a cathode of the OLEDs and electrically connected to the electrostatic discharge lines through switch modules, wherein the electrostatic discharge lines include high-voltage electrostatic discharge lines and low-voltage electrostatic discharge lines; and a conductive area is connected to a high-voltage electrostatic discharge line through first switch modules, and is connected to a low-voltage electrostatic discharge line through second switch modules; characterized in that, the switch modules comprise diode connectd transistors such that when positive electrostatic charges are generated in the conductive area and create a positive electrostatic voltage, the first switch modules are turned on; and when negative electrostatic charges are generated in the conductive area and create a negative electrostatic voltage, the second switch modules are turned on.
An apparatus to adaptively disable and enable sleep states, comprising: comparison logic to determine whether a runtime disablement condition is met with respect to a sleep state; wherein determining whether a runtime disablement condition is met with respect to the sleep state comprises: determining a false entry rate for the sleep state, and comparing the false entry rate to an energy-based threshold, wherein the energy-based threshold is given by POW on − POW FE ̅, i POW FE, i − POW FE ̅, i where, POW FE,i and POW FE,i are the average power consumption per unit time for false and correct entries respectively into sleep state i, and POW on denotes an average power of the active power state of the platform, wherein the runtime disablement condition is determined to have been met if the false entry rate exceeds the energy-based threshold, and wherein determining a false entry rate comprises determining a ratio of false entries into the sleep state to total entries into the sleep state over a historical period; disablement logic to disable the sleep state if the runtime disablement condition is met; and enablement logic to enable the sleep state if a runtime reinstatement condition is met. comparison logic to determine whether a runtime disablement condition is met with respect to a sleep state; wherein determining whether a runtime disablement condition is met with respect to the sleep state comprises: determining a false entry rate for the sleep state, and comparing the false entry rate to an energy-based threshold, wherein the energy-based threshold is given by POW on − POW FE ̅, i POW FE, i − POW FE ̅, i determining a false entry rate for the sleep state, and comparing the false entry rate to an energy-based threshold, wherein the energy-based threshold is given by POW on − POW FE ̅, i POW FE, i − POW FE ̅, i where, POW FE,i and POW FE,i are the average power consumption per unit time for false and correct entries respectively into sleep state i, and POW on denotes an average power of the active power state of the platform, wherein the runtime disablement condition is determined to have been met if the false entry rate exceeds the energy-based threshold, and wherein determining a false entry rate comprises determining a ratio of false entries into the sleep state to total entries into the sleep state over a historical period; wherein the runtime disablement condition is determined to have been met if the false entry rate exceeds the energy-based threshold, and wherein determining a false entry rate comprises determining a ratio of false entries into the sleep state to total entries into the sleep state over a historical period; disablement logic to disable the sleep state if the runtime disablement condition is met; and enablement logic to enable the sleep state if a runtime reinstatement condition is met.
A sodium-ion electrolyte composition for use in an electrochemical cell, the electrolyte composition comprising a mixture of a phosphonium salt and a sodium salt, wherein the electrolyte composition presents as a solid up to at least 25°C, and sodium is present at a concentration of at least 10 mol% relative to the total moles of phosphonium salt and sodium salt combined.
A cutting machine for cutting out a product having a predetermined product length from a material, the cutting machine comprising: a cutting machine main body configured to cut the material transported along a longitudinal direction of the material into a plurality of cut materials; a transport device (20, 40) configured to carry the material into the cutting machine main body and to sort and carry out each of the plurality of cut materials cut by the cutting machine main body into any yard of a plurality of yards (30, 45); and a control device configured to control the cutting machine main body and the transport device (20, 40), characterized in that the plurality of yards (30, 45) include a product yard for accommodating the product and a residual material yard for accommodating a residual material of the material, the control device is provided with a first operation mode for causing all of the plurality of cut materials to be carried out to the product yard, and a second operation mode for causing a cut material corresponding to the product length to be carried out to the product yard and a cut material corresponding to the remaining portion of the material from which the cut material corresponding to the product length has been cut out to be carried out to the residual material yard, from among the plurality of cut materials, and the control device is configured to switch between the first operation mode and the second operation mode for execution. a cutting machine main body configured to cut the material transported along a longitudinal direction of the material into a plurality of cut materials; a transport device (20, 40) configured to carry the material into the cutting machine main body and to sort and carry out each of the plurality of cut materials cut by the cutting machine main body into any yard of a plurality of yards (30, 45); and a control device configured to control the cutting machine main body and the transport device (20, 40), characterized in that the plurality of yards (30, 45) include a product yard for accommodating the product and a residual material yard for accommodating a residual material of the material, the control device is provided with a first operation mode for causing all of the plurality of cut materials to be carried out to the product yard, and a second operation mode for causing a cut material corresponding to the product length to be carried out to the product yard and a cut material corresponding to the remaining portion of the material from which the cut material corresponding to the product length has been cut out to be carried out to the residual material yard, from among the plurality of cut materials, and the control device is configured to switch between the first operation mode and the second operation mode for execution.
A forehead coupler configured to connect first and second forehead straps of a headgear together in a closed loop and connect the headgear to a frame comprising: a pair of lateral strap connectors; and a frame connector configured to link the strap connectors together; wherein the frame connector comprises a crossbar and a rib slot, the rib slot is formed within a thin flange that extends upwardly from the crossbar and extends between the two strap connectors, the thin flange creating a recess on a front side of the frame connector. a pair of lateral strap connectors; and a frame connector configured to link the strap connectors together; wherein the frame connector comprises a crossbar and a rib slot, the rib slot is formed within a thin flange that extends upwardly from the crossbar and extends between the two strap connectors, the thin flange creating a recess on a front side of the frame connector.
A delivery-and-fluid-storage bridge for use with a reduced-pressure treatment system, comprising: a delivery manifold extending along a length of the delivery-and-fluid-storage bridge for delivering reduced pressure through the delivery-and-fluid-storage bridge; an absorbent layer proximate the delivery manifold adapted to receive and store fluids; wherein the delivery-and-fluid storage bridge has a first side and a second, patient-facing side; a first encapsulating layer and a second encapsulating layer at least partially enclosing the delivery manifold and the absorbent layer; a first aperture formed proximate a first longitudinal end of the delivery-and-fluid-storage bridge for fluidly communicating reduced pressure to the delivery manifold from a reduced-pressure source; a second aperture formed on the second, patient-facing side of the second encapsulating layer proximate a second longitudinal end of the delivery-and-fluid-storage bridge for transmitting reduced pressure to a tissue site; and characterised by a conduit disposed between the first encapsulating layer and the second encapsulating layer which continues along the length of the delivery-and-fluid storage bridge to the second longitudinal end of the delivery-and-fluid-storage bridge, wherein the conduit has an end positioned at the second longitudinal end of the delivery-and-fluid-storage bridge. a delivery manifold extending along a length of the delivery-and-fluid-storage bridge for delivering reduced pressure through the delivery-and-fluid-storage bridge; an absorbent layer proximate the delivery manifold adapted to receive and store fluids; wherein the delivery-and-fluid storage bridge has a first side and a second, patient-facing side; a first encapsulating layer and a second encapsulating layer at least partially enclosing the delivery manifold and the absorbent layer; a first aperture formed proximate a first longitudinal end of the delivery-and-fluid-storage bridge for fluidly communicating reduced pressure to the delivery manifold from a reduced-pressure source; a second aperture formed on the second, patient-facing side of the second encapsulating layer proximate a second longitudinal end of the delivery-and-fluid-storage bridge for transmitting reduced pressure to a tissue site; and characterised by a conduit disposed between the first encapsulating layer and the second encapsulating layer which continues along the length of the delivery-and-fluid storage bridge to the second longitudinal end of the delivery-and-fluid-storage bridge, wherein the conduit has an end positioned at the second longitudinal end of the delivery-and-fluid-storage bridge.
A method of electrically adjusting a magic angle in NMR using a solid-state NMR probe to perform NMR detection of a sample, said method comprising the steps of: applying an external magnetic field B 0 along a Z-axis; placing a sample tube holding the sample therein such that the sample tube is tilted at an angle of θ with respect to the Z-axis and rotates about its axis which, when it is projected onto a plane perpendicular to the Z-axis, forms a Y-axis; placing a uniform magnetic field coil assembly for producing a uniform magnetic field H along the Y-axis; producing a uniform magnetic field H by supplying electric currents through the uniform magnetic field coil assembly, thereby generating a vector sum of the external magnetic field B 0 and the uniform magnetic field H as a new external magnetic field B 0 ' along a new Z-axis; performing NMR detection using said new external magnetic field B 0 ' given by the vector sum; and optimizing the spectral resolution of an acquired NMR spectrum by adjusting said currents such that the angle θ between the new Z-axis and the axis of rotation of the sample tube becomes identical to the magic angle. applying an external magnetic field B 0 along a Z-axis; placing a sample tube holding the sample therein such that the sample tube is tilted at an angle of θ with respect to the Z-axis and rotates about its axis which, when it is projected onto a plane perpendicular to the Z-axis, forms a Y-axis; placing a uniform magnetic field coil assembly for producing a uniform magnetic field H along the Y-axis; producing a uniform magnetic field H by supplying electric currents through the uniform magnetic field coil assembly, thereby generating a vector sum of the external magnetic field B 0 and the uniform magnetic field H as a new external magnetic field B 0 ' along a new Z-axis; performing NMR detection using said new external magnetic field B 0 ' given by the vector sum; and optimizing the spectral resolution of an acquired NMR spectrum by adjusting said currents such that the angle θ between the new Z-axis and the axis of rotation of the sample tube becomes identical to the magic angle.