mhurhangee/patent-ind-claim-en huggingface dataset:
A stator heat shield segment for a gas turbine, the stator heat shield segment comprising: - an inner surface facing a hot gas main flow of the gas turbine; - an outer surface opposite to the inner surface and at least partially exposed to cooling air; - a first impingement cavity provided with a plurality of first impingement holes fluidly connected with the cooling air supplied outside the outer surface ; - a feeding cavity isolated from the cooling air supplied outside the outer surface and fluidly connected with first impingement cavity ; - a second impingement cavity provided with a plurality of second impingement holes fluidly connected to the feeding cavity ; wherein the first and the second impingement cavity are arranged one beside the other parallel with respect to the inner surface and are separated by a partition wall ; characterized in that the partition wall comprises at least a bypass cooling hole . - an inner surface facing a hot gas main flow of the gas turbine; - an outer surface opposite to the inner surface and at least partially exposed to cooling air; - a first impingement cavity provided with a plurality of first impingement holes fluidly connected with the cooling air supplied outside the outer surface ; - a feeding cavity isolated from the cooling air supplied outside the outer surface and fluidly connected with first impingement cavity ; - a second impingement cavity provided with a plurality of second impingement holes fluidly connected to the feeding cavity ; wherein the first and the second impingement cavity are arranged one beside the other parallel with respect to the inner surface and are separated by a partition wall ; characterized in that the partition wall comprises at least a bypass cooling hole .
Sensor and conveying element for a conveying device with objects on a plurality of conveying elements moved one behind the other, each having a discharge device for selective removal of the object from a conveying element , the sensor having a sensor element and an evaluation unit for signals from the sensor element , characterized in that the sensor element is integrated into the conveying element , in that the conveying element comprises a belt for movement transversely to a direction of movement of the conveying device or a tray, in that the sensor element comprises a resonator for detecting a microwave resonance, and in that the evaluation unit is configured for detecting objects on the conveying element on the basis of changes in the resonance properties.
A catalyst composition for a producing process of an unsaturated carboxylic acid salt and its derivatives from carbon dioxide and olefin, wherein said catalyst composition comprises: a) a palladium metal complex as shown in structure (I); wherein, R 1 , R 2 , R 3 , and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; b) a ligand selected from organophosphorus compound selected from diphosphine group with a general formula PR 7 3 CH 2 CH 2 PR 7 3 , wherein R 7 is selected from alkyl group, phenyl group, or cycloalkyl group; c) a base selected from sodium tert-butoxide, sodium isopropoxide, sodium 2,6-dimethylphenolate, sodium 2,6-difluorophenolate, sodium 2-methylphenolate, or sodium 2-fluorophenolate); and d) a reducing agent selected from zinc, L-ascorbic acid, or sodium citrate. a) a palladium metal complex as shown in structure (I); wherein, R 1 , R 2 , R 3 , and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; R 1 , R 2 , R 3 , and R 4 independently represents a group selected from hydrogen atom, chlorine atom, tert-butyl group, methoxy group, trifluoromethyl group, or diethylamine group; and R 5 represents a group selected from ethylene, 1,2-phenylene, binaphthyl, or 1,2-cyclohexyl; b) a ligand selected from organophosphorus compound selected from diphosphine group with a general formula PR 7 3 CH 2 CH 2 PR 7 3 , wherein R 7 is selected from alkyl group, phenyl group, or cycloalkyl group; c) a base selected from sodium tert-butoxide, sodium isopropoxide, sodium 2,6-dimethylphenolate, sodium 2,6-difluorophenolate, sodium 2-methylphenolate, or sodium 2-fluorophenolate); and d) a reducing agent selected from zinc, L-ascorbic acid, or sodium citrate.
Method for determining a vehicle pose of a vehicle , wherein the vehicle pose is estimated by means of integration based on sensor data from at least acceleration sensors and angular rate sensors , and a known initial pose, wherein the estimated vehicle pose is corrected by means of at least one reference vehicle pose , wherein time intervals between the corrections are established taking into account a current driving situation of the vehicle . wherein the vehicle pose is estimated by means of integration based on sensor data from at least acceleration sensors and angular rate sensors , and a known initial pose, wherein the estimated vehicle pose is corrected by means of at least one reference vehicle pose , wherein time intervals between the corrections are established taking into account a current driving situation of the vehicle .
A method for autonomous machine navigation comprising: determining a current pose of an autonomous machine based on non-vision-based pose data captured by one or more non-vision-based sensors of the autonomous machine , wherein the pose represents one or both of a position and an orientation of the autonomous machine in a work region defined by one or more boundaries that are taught to the autonomous machine in a training mode initiated by a user of the autonomous machine ; characterized by determining vision-based pose data based on two-dimensional, 2D, image data captured by the autonomous machine ; and updating the current pose based on the vision-based pose data to correct or localize the current pose and to provide an updated pose of the autonomous machine in the work region for navigating the autonomous machine in the work region ; wherein: the work region is an outdoor area; the autonomous machine is a grounds maintenance machine; or the work region is a lawn and the autonomous machine is a lawn maintenance machine. determining a current pose of an autonomous machine based on non-vision-based pose data captured by one or more non-vision-based sensors of the autonomous machine , wherein the pose represents one or both of a position and an orientation of the autonomous machine in a work region defined by one or more boundaries that are taught to the autonomous machine in a training mode initiated by a user of the autonomous machine ; characterized by determining vision-based pose data based on two-dimensional, 2D, image data captured by the autonomous machine ; and updating the current pose based on the vision-based pose data to correct or localize the current pose and to provide an updated pose of the autonomous machine in the work region for navigating the autonomous machine in the work region ; wherein: the work region is an outdoor area; the autonomous machine is a grounds maintenance machine; or the work region is a lawn and the autonomous machine is a lawn maintenance machine. the work region is an outdoor area; the autonomous machine is a grounds maintenance machine; or the work region is a lawn and the autonomous machine is a lawn maintenance machine.
A receive antenna for a line location system , comprising: a plurality of coil arrays arranged along a core configured to receive signals from an underground line; and a plurality of switches coupled to the plurality of coil arrays, each of the switches couples across terminals of one of the coil arrays in the plurality of coil arrays, the plurality of switches forming multiple switch combinations , each switch combination configured to provide connections between each of the plurality of coil arrays to form the receive antenna, wherein each of the multiple switch combinations results in the receive antenna including all of the plurality of coil arrays, wherein the plurality of switches are configured to receive sensitivity control signals that determine which of the multiple switch combinations to set to form the receive antenna, wherein the sensitivity control signals relate to a receive frequency of the receive antenna, wherein the sensitivity control signals include a first sensitivity control signal and a second sensitivity control signal, the first sensitivity control signal to indicate a first switch combination where the plurality of coil arrays are in series, and the second sensitivity control signal to indicate a second switch combination where the plurality of coil arrays are in parallel, and wherein at least a portion of the plurality of coil arrays are overlapping such that individual turns from each of the plurality of coils are adjacent to each other. a plurality of coil arrays arranged along a core configured to receive signals from an underground line; and a plurality of switches coupled to the plurality of coil arrays, each of the switches couples across terminals of one of the coil arrays in the plurality of coil arrays, the plurality of switches forming multiple switch combinations , each switch combination configured to provide connections between each of the plurality of coil arrays to form the receive antenna, wherein each of the multiple switch combinations results in the receive antenna including all of the plurality of coil arrays, wherein the plurality of switches are configured to receive sensitivity control signals that determine which of the multiple switch combinations to set to form the receive antenna, wherein the sensitivity control signals relate to a receive frequency of the receive antenna, wherein the sensitivity control signals include a first sensitivity control signal and a second sensitivity control signal, the first sensitivity control signal to indicate a first switch combination where the plurality of coil arrays are in series, and the second sensitivity control signal to indicate a second switch combination where the plurality of coil arrays are in parallel, and wherein at least a portion of the plurality of coil arrays are overlapping such that individual turns from each of the plurality of coils are adjacent to each other.
A frame structure, such as a sash or a stationary frame for a window or door, including side, top and bottom frame pieces (11, 12, 13, 14; 21, 22, 23, 24), a weather-protecting shielding arrangement covering at least parts of the frame pieces adapted to face the exterior of a building in a mounted position of the frame structure, and at least one elongate fastening member interconnecting the weather-protecting shielding arrangement to at least one frame piece, where said frame structure comprising a core and a cover layer applied to the core by moulding and encasing the core, said core comprising at least one core member , where said fastening member projects into a fastening member reception section formed by the material used for the cover layer forming a plug extending into a hole or recess in at least one core member, filling the hole or recess substantially entirely, and where said hole or recess extends in a length direction (L) of the fastening member reception section from a surface of the core member facing a surface of a frame piece (11, 12, 13, 14; 21, 22, 23, 24), characterized in that at least one core member is made of wood or a wood-based material, and that the distance D end in the length direction from the surface of the frame piece to the end of the plug defines a maximum allowable fastening member penetration depth D pen , and in that D end -D pen ≥ 1 mm. where said fastening member projects into a fastening member reception section formed by the material used for the cover layer forming a plug extending into a hole or recess in at least one core member, filling the hole or recess substantially entirely, and where said hole or recess extends in a length direction (L) of the fastening member reception section from a surface of the core member facing a surface of a frame piece (11, 12, 13, 14; 21, 22, 23, 24), characterized in that at least one core member is made of wood or a wood-based material, and that the distance D end in the length direction from the surface of the frame piece to the end of the plug defines a maximum allowable fastening member penetration depth D pen , and in that D end -D pen ≥ 1 mm.
A method of forming a microelectromechanical system (MEMS) device for a gas chromatograph, comprising: providing a silicon-on-insulator (SOI) wafer including a base layer , a device layer above the base layer , and a buried oxide layer between the base layer and a lower surface of the device layer ; etching a plurality of trenches from an upper surface of the device layer to the buried oxide layer , the trenches spaced along a sequential path in the device layer ; releasing a portion of the buried oxide layer through the trenches ; and annealing the SOI wafer to seal off the trenches at the upper and lower surfaces of the device layer so as to form (i) one or more atomic-smooth, continuous channels within the device layer and (ii) a cavity bounded by the base layer , the buried oxide layer , and the lower surface of the device layer ; wherein the annealing of the SOI wafer enables portions of silicon in the device layer to migrate across the trenches near the upper and the lower surfaces of the device layer and seal off the trenches at the upper and the lower surfaces ; wherein the continued migration of the silicon portions across the trenches and from between adjacent trenches results in the formation of the one or more atomic-smooth, continuous channels through the device layer ; and wherein the sealing off of the trenches at the lower surface of the device layer due to the annealing of the SOI wafer also defines the cavity . providing a silicon-on-insulator (SOI) wafer including a base layer , a device layer above the base layer , and a buried oxide layer between the base layer and a lower surface of the device layer ; etching a plurality of trenches from an upper surface of the device layer to the buried oxide layer , the trenches spaced along a sequential path in the device layer ; releasing a portion of the buried oxide layer through the trenches ; and annealing the SOI wafer to seal off the trenches at the upper and lower surfaces of the device layer so as to form (i) one or more atomic-smooth, continuous channels within the device layer and (ii) a cavity bounded by the base layer , the buried oxide layer , and the lower surface of the device layer ; wherein the annealing of the SOI wafer enables portions of silicon in the device layer to migrate across the trenches near the upper and the lower surfaces of the device layer and seal off the trenches at the upper and the lower surfaces ; wherein the continued migration of the silicon portions across the trenches and from between adjacent trenches results in the formation of the one or more atomic-smooth, continuous channels through the device layer ; and wherein the sealing off of the trenches at the lower surface of the device layer due to the annealing of the SOI wafer also defines the cavity .
A method for managing a Multimedia Broadcast Service, MBS, service, comprising: receiving, by a terminal device, MBS configuration information sent by a network device, wherein the MBS configuration information is used for determining an MBS service identity; wherein the MBS service identity comprises a Group Radio Network Temporary Identity, G-RNTI; receiving , by the terminal device, a first command sent by the network device, wherein the first command is used for deactivating at least one MBS service configured by the MBS configuration information and/or activating at least one MBS service configured by the MBS configuration information; and deactivating , by the terminal device, at least one MBS service and/or activating at least one MBS service based on the first command; wherein deactivating , by the terminal device, at least one MBS service further comprising: stopping monitoring a first Physical Downlink Control Channel, PDCCH, wherein the first PDCCH is a PDCCH scrambled by the G-RNTI corresponding to the MBS service. receiving, by a terminal device, MBS configuration information sent by a network device, wherein the MBS configuration information is used for determining an MBS service identity; wherein the MBS service identity comprises a Group Radio Network Temporary Identity, G-RNTI; receiving , by the terminal device, a first command sent by the network device, wherein the first command is used for deactivating at least one MBS service configured by the MBS configuration information and/or activating at least one MBS service configured by the MBS configuration information; and deactivating , by the terminal device, at least one MBS service and/or activating at least one MBS service based on the first command; wherein deactivating , by the terminal device, at least one MBS service further comprising: stopping monitoring a first Physical Downlink Control Channel, PDCCH, wherein the first PDCCH is a PDCCH scrambled by the G-RNTI corresponding to the MBS service.
A system comprising: a surgical tool for use with a drill bit to prevent skiving at an implant insertion site on a bone, the surgical tool including a cannulated sleeve having a distal end defining a burr surface ; and the drill bit configured to be disposed within the cannulated sleeve , wherein: in a first configuration the cannulated sleeve and the drill bit are rotationally coupled to each other and in a second configuration the cannulated sleeve and the drill bit rotate independent of one another. a surgical tool for use with a drill bit to prevent skiving at an implant insertion site on a bone, the surgical tool including a cannulated sleeve having a distal end defining a burr surface ; and the drill bit configured to be disposed within the cannulated sleeve , wherein: in a first configuration the cannulated sleeve and the drill bit are rotationally coupled to each other and in a second configuration the cannulated sleeve and the drill bit rotate independent of one another.
A circulator/isolator device comprising: a substrate comprising one or more conductive coils, wherein the one or more conductive coils are formed in, on, or about the substrate; an opening in the substrate comprising an iron core, wherein the iron core is formed in the substrate after the formation of the one or more conductive coils, wherein the iron core is positioned and shaped to create a circulator/isolator in the substrate; and one or more connectors, vias, resistors, capacitors, or other integrated circuits of devices connected to the one or more conductive coils of the circulator/isolator characterised in that the substrate is a photosensitive glass ceramic composite substrate comprising at least silica, lithium oxide, aluminum oxide, and cerium oxide. a substrate comprising one or more conductive coils, wherein the one or more conductive coils are formed in, on, or about the substrate; an opening in the substrate comprising an iron core, wherein the iron core is formed in the substrate after the formation of the one or more conductive coils, wherein the iron core is positioned and shaped to create a circulator/isolator in the substrate; and one or more connectors, vias, resistors, capacitors, or other integrated circuits of devices connected to the one or more conductive coils of the circulator/isolator characterised in that the substrate is a photosensitive glass ceramic composite substrate comprising at least silica, lithium oxide, aluminum oxide, and cerium oxide.
A laminated motor-vehicle windshield comprising two glass sheets, an exterior glass sheet and an interior glass sheet , which sheets are joined together by an interlayer made of a thermoplastic of refractive index n 1 , wherein said windshield is equipped with a through-hole that passes through at least one of said glass sheets and wherein said hole is filled with an optical device that is suitable for deviating a light beam incident substantially horizontally on that face of the windshield which is exposed to the exterior of the vehicle and for making it converge, substantially without deformation, on an image-capturing device of a camera, such as a CCD or CMOS detector, placed facing that face of the windshield which is turned toward the passenger compartment of the vehicle, said detector being arranged substantially parallelly to the surface of said windshield, wherein said windshield is equipped with a through-hole that passes through said glass sheets and said interlayer or only the exterior glass sheet and characterized in that the optical device comprises a combination of one or more convergent lenses and one or more divergent lenses.
Household appliance for treating laundry, having an appliance base and an appliance topside , wherein the appliance topside is arranged opposite the appliance base , a pump unit for recirculating and/or pumping down the fluid present during a cleaning and/or drying process, a drive unit for essentially driving the pump unit , a control unit for controlling the drive unit , a filter unit for filtering the fluid , wherein the pump unit pumps the fluid out of a receiving container to the filter unit and wherein the filter unit comprises a number of filter assemblies , wherein the number of filter assemblies are arranged in series and the number of filter assemblies are each connected fluidically by way of at least one overflow . an appliance base and an appliance topside , wherein the appliance topside is arranged opposite the appliance base , a pump unit for recirculating and/or pumping down the fluid present during a cleaning and/or drying process, a drive unit for essentially driving the pump unit , a control unit for controlling the drive unit , a filter unit for filtering the fluid , wherein the pump unit pumps the fluid out of a receiving container to the filter unit and wherein the filter unit comprises a number of filter assemblies , wherein the number of filter assemblies are arranged in series and the number of filter assemblies are each connected fluidically by way of at least one overflow .