mhurhangee/patent-ind-claim-en huggingface dataset:
A method for converting a reactant gas, the method comprising: introducing the reactant gas to a fluidized bed reactor such that the reactant gas is contacted by a catalyst, wherein the fluidized bed reactor comprises a main reactor vessel comprising an upstream portion and a downstream portion, and a transition section connected to the downstream portion of the main reactor vessel, and wherein the reactant gas enters the fluidized bed reactor at the upstream portion of the main reactor vessel, and wherein the transition section projects inwardly from the main reactor vessel to a riser; catalytically reacting the reactant gas to form a reaction product in the fluidized bed reactor, wherein the reaction results in additional gas molecules relative to the reactant gas; and passing the reaction product and any unreacted reactant gas through the transition section and into the riser, wherein the riser is connected to the transition section; wherein the main reactor vessel is tapered such that the upstream portion of the main reactor vessel comprises a lesser cross-sectional area than the downstream portion of the main reactor vessel. introducing the reactant gas to a fluidized bed reactor such that the reactant gas is contacted by a catalyst, wherein the fluidized bed reactor comprises a main reactor vessel comprising an upstream portion and a downstream portion, and a transition section connected to the downstream portion of the main reactor vessel, and wherein the reactant gas enters the fluidized bed reactor at the upstream portion of the main reactor vessel, and wherein the transition section projects inwardly from the main reactor vessel to a riser; catalytically reacting the reactant gas to form a reaction product in the fluidized bed reactor, wherein the reaction results in additional gas molecules relative to the reactant gas; and passing the reaction product and any unreacted reactant gas through the transition section and into the riser, wherein the riser is connected to the transition section; wherein the main reactor vessel is tapered such that the upstream portion of the main reactor vessel comprises a lesser cross-sectional area than the downstream portion of the main reactor vessel.
A storage device , comprising: first storage for storing a data; a controller to manage access to the data in the first storage ; a second storage to store a first identifier and a second identifier , the first identifier for an event and the second identifier for a program; and a processor to receive the event and execute the program based at least in part on the second storage, wherein the processor is configured to execute the program on a computational storage unit based at least in part on the second storage, wherein the computational storage unit is connected to a host , the host storing the program, and wherein the computational storage unit is configured to receive the program from the host as a download based at least in part on the processor receiving the event. first storage for storing a data; a controller to manage access to the data in the first storage ; a second storage to store a first identifier and a second identifier , the first identifier for an event and the second identifier for a program; and a processor to receive the event and execute the program based at least in part on the second storage, wherein the processor is configured to execute the program on a computational storage unit based at least in part on the second storage, wherein the computational storage unit is connected to a host , the host storing the program, and wherein the computational storage unit is configured to receive the program from the host as a download based at least in part on the processor receiving the event.
A container , in particular a nestable container, having a bottom and side walls which extend from the bottom towards a circumferential container rim , in particular conically and/or widening in steps, wherein at least one of the side walls has a shock absorber on its outer side, which is arranged in the container height direction below the container rim and preferably at a distance therefrom, and projects from said outer side at least to such an extent that it is tangent to or intersects a plane spanned between an outer edge of the bottom and an outer edge of the container rim of the at least one side wall , so that in the event of a tilting movement of the container about the associated outer edges of the bottom , the shock absorber hits a flat bottom before the container rim , characterized in that the shock absorber is hollow, in particular in the form of a hollow profile, or in that a clearance is formed between the shock absorber and the outer surface of the associated side wall shielded by the latter, and the shock absorber tapers in the direction away from the container interior, so that the shock absorber is configured and adapted to at least partially dissipate an impact acting laterally on the container while undergoing elastic and/or plastic deformation. wherein at least one of the side walls has a shock absorber on its outer side, which is arranged in the container height direction below the container rim and preferably at a distance therefrom, and projects from said outer side at least to such an extent that it is tangent to or intersects a plane spanned between an outer edge of the bottom and an outer edge of the container rim of the at least one side wall , so that in the event of a tilting movement of the container about the associated outer edges of the bottom , the shock absorber hits a flat bottom before the container rim , characterized in that the shock absorber is hollow, in particular in the form of a hollow profile, or in that a clearance is formed between the shock absorber and the outer surface of the associated side wall shielded by the latter, and the shock absorber tapers in the direction away from the container interior, so that the shock absorber is configured and adapted to at least partially dissipate an impact acting laterally on the container while undergoing elastic and/or plastic deformation.
A network data analytics function, NWDAF, network element selection method, performed by an electronic device, the method comprising transmitting (S301) an NWDAF service discovery request to a network repository function, NRF, network element, the NWDAF service discovery request indicating a requested network data analysis service; receiving (S302) an NWDAF service discovery response in response to the NWDAF service discovery request, the NWDAF service discovery response comprising performance parameter information of each NWDAF network elements for the requested network data analysis service, the performance parameter information comprising an average prediction confidence by the respective NWDAF network element for the requested network data analysis service; determining a specific NWDAF network element in the NWDAF network elements with a maximum average prediction confidence for the requested network data analysis service to be a target NWDAF network element; selecting (S303), according to said determining, the target NWDAF network element to be used for providing the requested network data analysis service; and transmitting (S303) an NWDAF service request to the target NWDAF network element. transmitting (S301) an NWDAF service discovery request to a network repository function, NRF, network element, the NWDAF service discovery request indicating a requested network data analysis service; receiving (S302) an NWDAF service discovery response in response to the NWDAF service discovery request, the NWDAF service discovery response comprising performance parameter information of each NWDAF network elements for the requested network data analysis service, the performance parameter information comprising an average prediction confidence by the respective NWDAF network element for the requested network data analysis service; determining a specific NWDAF network element in the NWDAF network elements with a maximum average prediction confidence for the requested network data analysis service to be a target NWDAF network element; selecting (S303), according to said determining, the target NWDAF network element to be used for providing the requested network data analysis service; and transmitting (S303) an NWDAF service request to the target NWDAF network element.
A wiper mechanism which is formed for wiping the windshields of vehicles and which, by cleaning the window in rainy and snowy weather conditions, prevents blocking the driver's view, mainly comprising: - at least one motor which drives each wiper arm (A) and thus allows them to move, - at least one set of cone gears which has a drive gear (3.1) connected to the motor and rotating around its own axis driven by the motor , and which also comprises a transmission gear (3.2) which rotates in synchronization with the drive gear (3.1) as being positioned 90° with respect to the central axis of said drive gear (3.1), and characterized by - at least one set of shafts which is located in the main shaft bearing (3.2.1) disposed in the middle portion of the transmission gear (3.2) and rotates around its own axis in synchronization with the transmission gear (3.2), and which at the same time is provided with a worm gear (4.3) at both ends thereof, and - a drive mechanism which is driven by the rotational movement formed in the worm gear (4.3), and which also rotates the wiper arm (A) angularly around the central axis of the pinion gear (7.2) by way of a spur gear (7.1) rotated by the worm gear (4.3) and a pinion gear (7.2) disposed at the center of said spur gear (7.1). - at least one motor which drives each wiper arm (A) and thus allows them to move, - at least one set of cone gears which has a drive gear (3.1) connected to the motor and rotating around its own axis driven by the motor , and which also comprises a transmission gear (3.2) which rotates in synchronization with the drive gear (3.1) as being positioned 90° with respect to the central axis of said drive gear (3.1), and characterized by - at least one set of shafts which is located in the main shaft bearing (3.2.1) disposed in the middle portion of the transmission gear (3.2) and rotates around its own axis in synchronization with the transmission gear (3.2), and which at the same time is provided with a worm gear (4.3) at both ends thereof, and - a drive mechanism which is driven by the rotational movement formed in the worm gear (4.3), and which also rotates the wiper arm (A) angularly around the central axis of the pinion gear (7.2) by way of a spur gear (7.1) rotated by the worm gear (4.3) and a pinion gear (7.2) disposed at the center of said spur gear (7.1).
A solar cell, comprising: an N-type silicon substrate having a first surface and a second surface, a tunnel passivation structure and a first passivation and anti-reflection film formed on the first surface, a boron-doped emitter structure layer formed on the second surface, wherein the emitter structure layer includes a first emitter layer and a second emitter region, wherein the junction depth of the first emitter layer is smaller than that of the second emitter region, the highest boron doping concentration of the first emitter layer is greater than that of the second emitter region, and the total boron doping amount of the first emitter layer is less than that of the second emitter region, a second passivation and anti-reflection film formed on the emitter structure layer, a first electrode configured to be in electrical contact with the second emitter region, a second electrode configured to be in electrical contact with the tunnel passivation structure, wherein within the range of a depth of 0.02-0.6μm from the surface of the first emitter layer in the ECV doping curve of the first emitter layer, the difference between the highest boron doping concentration and the lowest boron doping concentration in the first emitter layer is greater than 1 orders of magnitude, and within the range of 0.05-0.7μm from the surface of the second emitter region in the ECV doping curve of the second emitter region, the difference between the highest boron doping concentration and the lowest boron doping concentration in the second emitter region is less than 1 order of magnitude. an N-type silicon substrate having a first surface and a second surface, a tunnel passivation structure and a first passivation and anti-reflection film formed on the first surface, a boron-doped emitter structure layer formed on the second surface, wherein the emitter structure layer includes a first emitter layer and a second emitter region, wherein the junction depth of the first emitter layer is smaller than that of the second emitter region, the highest boron doping concentration of the first emitter layer is greater than that of the second emitter region, and the total boron doping amount of the first emitter layer is less than that of the second emitter region, a second passivation and anti-reflection film formed on the emitter structure layer, a first electrode configured to be in electrical contact with the second emitter region, a second electrode configured to be in electrical contact with the tunnel passivation structure, wherein within the range of a depth of 0.02-0.6μm from the surface of the first emitter layer in the ECV doping curve of the first emitter layer, the difference between the highest boron doping concentration and the lowest boron doping concentration in the first emitter layer is greater than 1 orders of magnitude, and within the range of 0.05-0.7μm from the surface of the second emitter region in the ECV doping curve of the second emitter region, the difference between the highest boron doping concentration and the lowest boron doping concentration in the second emitter region is less than 1 order of magnitude.
A laminated glass, comprising: a pair of glass plates facing each other; a pair of intermediate bonding layers brought into contact with facing surfaces of the pair of glass plates, respectively, in which at least one of them has the following moisture permeability (A); and a functional film arranged between the pair of intermediate bonding layers, wherein a thickness measured at an end portion of the laminated glass is smaller by 5 μm or more than a thickness of the laminated glass measured at a position on the inside by 10 mm from the end portion, the moisture permeability (A) indicates that a degree of moisture permeability at a temperature of 40°C and a humidity of 90% RH measured according to JIS Z 0208: 1976 is 50 g/m 2 ·day or less, wherein said thickness at an end portion of the laminated glass is obtained during the manufacturing step of the laminated glass by performing a deaeration step from a periphery of the glass laminate, and subjecting the glass laminate to a step of thermo-pressure bonding, so that a larger compressive force is applied to an end portion of the glass laminate. a pair of glass plates facing each other; a pair of intermediate bonding layers brought into contact with facing surfaces of the pair of glass plates, respectively, in which at least one of them has the following moisture permeability (A); and a functional film arranged between the pair of intermediate bonding layers, wherein a thickness measured at an end portion of the laminated glass is smaller by 5 μm or more than a thickness of the laminated glass measured at a position on the inside by 10 mm from the end portion, the moisture permeability (A) indicates that a degree of moisture permeability at a temperature of 40°C and a humidity of 90% RH measured according to JIS Z 0208: 1976 is 50 g/m 2 ·day or less, wherein said thickness at an end portion of the laminated glass is obtained during the manufacturing step of the laminated glass by performing a deaeration step from a periphery of the glass laminate, and subjecting the glass laminate to a step of thermo-pressure bonding, so that a larger compressive force is applied to an end portion of the glass laminate.
A cowling structure for a straddle-type vehicle , the cowling structure comprising: a front cowling covering a vehicle front portion from a front side, wherein a lamp unit is installed inside the front cowling , wherein a lower surface of the front cowling is inclined obliquely downward to a rear side, wherein the lamp unit includes: a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion configured to adjust an optical axis of the lamp , characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion is configured to receive an operation with a tool, through the first ventilation hole . a front cowling covering a vehicle front portion from a front side, wherein a lamp unit is installed inside the front cowling , wherein a lower surface of the front cowling is inclined obliquely downward to a rear side, wherein the lamp unit includes: a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion configured to adjust an optical axis of the lamp , characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion is configured to receive an operation with a tool, through the first ventilation hole . a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion configured to adjust an optical axis of the lamp , characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion is configured to receive an operation with a tool, through the first ventilation hole .
A reinforced composition comprising: 55 to 85 wt% of a compatibilized blend of a polyphthalamide, an aliphatic polyamide, and a poly(phenylene ether) wherein said compatibilized blend is formed from a mixture of polyphthalamide, poly(phenylene ether), aliphatic polyamide, and a functionalizing agent; and 15 to 45 wt% of glass fiber, wherein the polyphthalamide and the aliphatic polyamide comprise a common repeating unit and the composition contains less than 0.1 wt% of phosphinates and less than 0.1 wt% of impact modifiers and weight percent is based on the total weight of the composition. 55 to 85 wt% of a compatibilized blend of a polyphthalamide, an aliphatic polyamide, and a poly(phenylene ether) wherein said compatibilized blend is formed from a mixture of polyphthalamide, poly(phenylene ether), aliphatic polyamide, and a functionalizing agent; and 15 to 45 wt% of glass fiber,
Clip for holding two flat elements joined together at their main face, the clip comprising a lower wall , an upper wall , and two side walls , the walls being interconnected so as to define a closed volume and the two side walls each being provided with a groove having an end that opens into a face referred to as the "front face" of the clip, the grooves being configured to insert the clip by its front face onto the two joined flat elements and each being delimited on the side walls by a contour having an upper segment and a lower segment opposite the upper segment , the clip being characterized in that the side walls each have, on their respective outwardly facing faces, a flat holding flange that extends along a rectilinear portion of the lower segment of the groove and provides a contact surface with one of the flat elements.
A method of wireless communication, comprising: receiving , by a user equipment, UE, a feedback configuration to report aperiodic channel state information, A-CSI, feedback using a physical uplink control channel, PUCCH; receiving , by the UE, a CSI trigger to report A-CSI feedback, wherein the CSI trigger includes a group common downlink control indicator, DCI; determining , by the UE, channel condition information associated with the A-CSI feedback in response to the CSI trigger; and reporting , by the UE to a base station, the A-CSI feedback using the PUCCH, the method characterized in that the feedback configuration includes: a configuration of two or more codepoints of the group common DCI for the UE corresponding to different respective CSI reference signal, CSI-RS, resource sets or different respective CSI-RS resources within a CSI-RS resource set; and A-CSI configuration identifiers identifying the different respective CSI-RS resource sets or the different respective CSI-RS resources. receiving , by a user equipment, UE, a feedback configuration to report aperiodic channel state information, A-CSI, feedback using a physical uplink control channel, PUCCH; receiving , by the UE, a CSI trigger to report A-CSI feedback, wherein the CSI trigger includes a group common downlink control indicator, DCI; determining , by the UE, channel condition information associated with the A-CSI feedback in response to the CSI trigger; and reporting , by the UE to a base station, the A-CSI feedback using the PUCCH, the method characterized in that the feedback configuration includes: a configuration of two or more codepoints of the group common DCI for the UE corresponding to different respective CSI reference signal, CSI-RS, resource sets or different respective CSI-RS resources within a CSI-RS resource set; and A-CSI configuration identifiers identifying the different respective CSI-RS resource sets or the different respective CSI-RS resources. a configuration of two or more codepoints of the group common DCI for the UE corresponding to different respective CSI reference signal, CSI-RS, resource sets or different respective CSI-RS resources within a CSI-RS resource set; and A-CSI configuration identifiers identifying the different respective CSI-RS resource sets or the different respective CSI-RS resources.