mhurhangee/patent-ind-claim-en huggingface dataset:
A method , in a wireless device configured to selectively operate in one of two or more previously configured bandwidth parts, BWPs, each BWP being a different subset of an available bandwidth for uplink and/or downlink operation, the method comprising: receiving an indication to switch from use of a first BWP to a second BWP; and upon switching to use of the second BWP, stopping operation of one or more physical layer procedures and waiting a predetermined time for receipt of a command activating and/or configuring the stopped one or more physical layer procedures for the second BWP; and upon failing to receive a command activating and/or configuring the stopped one or more physical layer procedures for the second BWP, within the predetermined time, switching to use of a default BWP of the two or more previously configured BWPs and applying a predetermined default configuration, corresponding to the default BWP, to one or more physical layer parameters and/or procedures, wherein the one or more physical layer parameters and/or procedures include one or more of the following: channel-state information, CSI, reporting; interference measurement reporting; and sounding reference signal, SRS, configuration parameters. receiving an indication to switch from use of a first BWP to a second BWP; and upon switching to use of the second BWP, stopping operation of one or more physical layer procedures and waiting a predetermined time for receipt of a command activating and/or configuring the stopped one or more physical layer procedures for the second BWP; and upon failing to receive a command activating and/or configuring the stopped one or more physical layer procedures for the second BWP, within the predetermined time, switching to use of a default BWP of the two or more previously configured BWPs and applying a predetermined default configuration, corresponding to the default BWP, to one or more physical layer parameters and/or procedures, wherein the one or more physical layer parameters and/or procedures include one or more of the following: channel-state information, CSI, reporting; interference measurement reporting; and sounding reference signal, SRS, configuration parameters. channel-state information, CSI, reporting; interference measurement reporting; and sounding reference signal, SRS, configuration parameters.
Use of a titanium alloy sheet as an electrode, wherein the titanium alloy sheet comprises at least one of 0.1 to 1.0% by mass of Al and 0.1 to 1.0% by mass of Si, with the balance being Ti and inevitable impurities, wherein the total content of Al and Si is 0.2 to 1.0% by mass and an average grain size is 5 to 20 μm.
Robot gripper for handling objects , in particular containers , each having at least one holding foot , by means of a robot , having a gripper base body which has a connecting flange , which is designed for fastening the robot gripper to a tool flange of a robot arm , further comprising a counterholder which is connected to the gripper base body and has a cutout which is adapted in its shape and size to the holding foot of the object , in order to be able to receive it in a form-fitting manner, and an actuator which is arranged on the gripper base body , is preferably mounted adjustably and is designed to press against the holding foot of the object in a clamping position, in order to fix the latter against the counterholder and, in a release position, to release the holding foot in such a way that the counterholder can be adjusted relative to the holding foot in order to be able to release the holding foot of the object from the robot gripper , wherein the cutout of the counterholder is formed as a window cutout closed at the circumferential edge, wherein the inner contour of the window cutout corresponds at least substantially to an outer contour of a head portion of the holding foot of the object and the outer contour of the head portion of the holding foot has a contour shape which forms at least one projection , which, in a locking position of the robot gripper , engages behind at least one latching niche of the counterholder , the counterholder having an inner wall which faces the gripper base body and forms at least one latching niche for the head portion of the holding foot of the object or of the at least one projection of the head portion of the holding foot of the object .
A method performed by a UE for mapping of non-IP based application data packets onto bearers for Quality of Service, QoS, differentiation, comprising: upon establishment of a bearer associated with a QoS, associating at least one tag value with the bearer, wherein a Vehicle-to-Anything, V2X, application triggers establishing the bearer, the bearer being non-IP Evolved Packet System, EPS; attaching, at an application layer, a tag to a non-IP based packet for enabling packet differentiation when passing the packet to a lower layer; mapping, by the lower layer, the packet onto the bearer using the at least one tag value, wherein the tag is used to decide on which bearer the packet should be mapped; and selecting, using the tag, which path to transmit the packet, wherein the tag is used for QoS differentiation and enforcement when the packet is transmitted. upon establishment of a bearer associated with a QoS, associating at least one tag value with the bearer, wherein a Vehicle-to-Anything, V2X, application triggers establishing the bearer, the bearer being non-IP Evolved Packet System, EPS; attaching, at an application layer, a tag to a non-IP based packet for enabling packet differentiation when passing the packet to a lower layer; mapping, by the lower layer, the packet onto the bearer using the at least one tag value, wherein the tag is used to decide on which bearer the packet should be mapped; and selecting, using the tag, which path to transmit the packet, wherein the tag is used for QoS differentiation and enforcement when the packet is transmitted.
A method for producing a composite member formed by bonding a base material and a resin member , the method comprising: a surface treatment step of forming micro-order or nano-order asperities on a surface of the base material; and a bonding step of directly bonding, by injection molding, a resin member to the surface of the base material that has the asperities formed in the surface treatment step, characterised in that an arithmetic average inclination prescribed by JIS B 0601 of the surface of the base material that has the asperities formed in the surface treatment step is 0.17 to 0.50. a surface treatment step of forming micro-order or nano-order asperities on a surface of the base material; and a bonding step of directly bonding, by injection molding, a resin member to the surface of the base material that has the asperities formed in the surface treatment step, characterised in that an arithmetic average inclination prescribed by JIS B 0601 of the surface of the base material that has the asperities formed in the surface treatment step is 0.17 to 0.50.
A.steel for machine structure use for surface hardening, consisting of, by mass%, C: 0.3 to 0.6%, Si: 0.02 to 2.0%, Mn: 1.5% to 3.0%, W: 0.0025 to 0.5%, Al: 0.001 to 0.5%, N: 0.003 to 0.02%, S: 0.0001 to 0.025%, P: 0.0001 to 0.03%, and O: 0.0001 to 0.005%, and optionally further, by mass%, one or more of Cr: 0.01 to 2.0%, Mo: 0.01 to 1.0%, V: 0.01 to 1.0%, B: 0.0005 to 0.005%, Nb: 0.005 to 0.3%, Ti: 0.005 to 0.2%, Ni: 0.05 to 2.0%, Cu: 0.01 to 2.0%, Ca: 0.0005 to 0.01%, Mg: 0.0005 to 0.01%, Zr: 0.0005 to 0.05%, and Te: 0.0005 to 0.1%; having an Mn/S of 70 to 30,000, and having a balance of substantially Fe and unavoidable impurities.
Valve device to prevent refilling of a pressure container , which valve device comprises a valve housing having a valve chamber provided with two ports , a valve body placed in the valve chamber and provided with an axially movable and spring-loaded valve cone having a valve seat , which seals against the valve body when the valve cone is unloaded, the valve body limiting the valve chamber at one port thereof and that a valve inlet is arranged in the valve housing , the valve housing being provided with a filling channel , which extends from a position between the two ports of the valve chamber through the valve housing and out through the outer surface thereof inside the pressure container when the valve device is mounted on a pressure container, wherein an, at least initially, movable interrupt member is connected to the filling channel to close the filling channel after the pressure container has been filled with pressure fluid, wherein the valve chamber is provided with a non-return valve at the other port thereof, which non-return valve is arranged to sealingly abut against the valve housing at a positive pressure in the valve chamber , wherein the interrupt member is formed as a piston movable in a cylinder , which cylinder forms the angle α with the filling channel , the piston being displaceable to entirely cover the opening of the filling channel toward the cylinder , filling of the pressure container as well as discharge from the pressure container being arranged to take place through the valve inlet .
A method for manufacturing a multi-layer stack , the multi-layer stack including: a glass panel unit ; an intermediate film ; and a transparent plate attached via the intermediate film to the glass panel unit , the glass panel unit including: a first glass panel ; a second glass panel ; and an evacuated space interposed between the first glass panel and the second glass panel , the method comprising: locating, into a chamber , a multi-layer assembly where the glass panel unit is stacked over the transparent plate with the intermediate film interposed between the transparent plate and the glass panel unit ; then evacuating the chamber ; and then making the multi-layer assembly be sandwiched between and heated by a pair of heaters of a heater device installed inside the chamber to assemble the glass panel unit and the transparent plate together via the intermediate film inside the evacuated chamber . the multi-layer stack including: a glass panel unit ; an intermediate film ; and a transparent plate attached via the intermediate film to the glass panel unit , a glass panel unit ; an intermediate film ; and a transparent plate attached via the intermediate film to the glass panel unit , the glass panel unit including: a first glass panel ; a second glass panel ; and an evacuated space interposed between the first glass panel and the second glass panel , a first glass panel ; a second glass panel ; and an evacuated space interposed between the first glass panel and the second glass panel , the method comprising: locating, into a chamber , a multi-layer assembly where the glass panel unit is stacked over the transparent plate with the intermediate film interposed between the transparent plate and the glass panel unit ; then evacuating the chamber ; and then making the multi-layer assembly be sandwiched between and heated by a pair of heaters of a heater device installed inside the chamber to assemble the glass panel unit and the transparent plate together via the intermediate film inside the evacuated chamber . locating, into a chamber , a multi-layer assembly where the glass panel unit is stacked over the transparent plate with the intermediate film interposed between the transparent plate and the glass panel unit ; then evacuating the chamber ; and then making the multi-layer assembly be sandwiched between and heated by a pair of heaters of a heater device installed inside the chamber to assemble the glass panel unit and the transparent plate together via the intermediate film inside the evacuated chamber .
A method for feeding laundry items to a laundry treatment installation, in particular a mangle, wherein a transverse periphery is stretched by a spreading installation having spreader clamps for holding adjacent corner regions of the transverse periphery of the laundry item and the laundry item herein is spread out, and the spread-out laundry item by way of the stretched front transverse periphery is deposited onto an infeed conveyor or a depositing strip, wherein each spreader clamp has a clamping jaw , characterized in that, prior to the laundry items being deposited onto the infeed conveyor or the depositing strip, the corner regions held by the spreader clamps are moved, with the clamping jaws closed, through the spreader clamps up to the outermost corner points of the corner regions.
Method for implementing a thermally insulating sandwich construction of a housing of a climate chamber for a high temperature region of 120° C to 350° C, having an inner walling and an outer walling , comprising the following method steps: - providing the inner walling , - adhering at least one high temperature resistant insulating plate to the inner walling , - positioning the outer walling with respect to the inner walling such that the at least one high temperature resistant insulating plate and a hollow space is implemented between the inner walling and the outer walling , and - filling the hollow space with a PUR foam to form a second rigid foam layer which attachs the at least one high temperature insulating plate to the outer walling , wherein numerous high temperature insulating plates are contiguously adhered to the inner walling through gaps , and the gaps are closed with a temperature resistant adhesive or a temperature resistant adhesive tape on the side facing away from the inner walling . - providing the inner walling , - adhering at least one high temperature resistant insulating plate to the inner walling , - positioning the outer walling with respect to the inner walling such that the at least one high temperature resistant insulating plate and a hollow space is implemented between the inner walling and the outer walling , and - filling the hollow space with a PUR foam to form a second rigid foam layer which attachs the at least one high temperature insulating plate to the outer walling ,
A centrifugal pump for pumping a heat-sensitive fluid foodstuff, comprising a volute casing having an inlet port and an outlet port for the heat sensitive fluid foodstuff, the volute casing enclosing an impeller comprising a disc operably associated with an end of a shaft , said disc having a first surface and a second surface opposite the first surface, said first surface facing the inlet of the casing and being provided with vanes , wherein the second surface of the disc of the impeller is exposed to a cooling medium, wherein the disc comprises a cooling cavity having a cooling medium inlet and a cooling medium outlet .
An optical interconnection device for establishing evanescent optical coupling between an array of optical waveguides and an array of optical fibers , comprising: a planar lightwave circuit having a surface and supporting the array of optical waveguides , wherein the array has first and second sides ; an adapter having an interior , spaced apart first and second tabs and spaced apart first and second arms each having a first guide feature , wherein the first and second tabs of the adapter are attached to the surface of the planar lightwave circuit adjacent and outboard of the first and second sides of the array of waveguides ; a stop fixture comprising a recess with an inside edge , the stop fixture being attached to the surface of the planar lightwave circuit and within the interior of the adapter and relative to the optical waveguide array , with the recess defining an alignment surface. a planar lightwave circuit having a surface and supporting the array of optical waveguides , wherein the array has first and second sides ; an adapter having an interior , spaced apart first and second tabs and spaced apart first and second arms each having a first guide feature , wherein the first and second tabs of the adapter are attached to the surface of the planar lightwave circuit adjacent and outboard of the first and second sides of the array of waveguides ; a stop fixture comprising a recess with an inside edge , the stop fixture being attached to the surface of the planar lightwave circuit and within the interior of the adapter and relative to the optical waveguide array , with the recess defining an alignment surface.
An assembly comprising a water tank for keeping aquatic creatures and a jump-out prevention device , wherein the jump-out prevention device includes: electrode parts arranged along an inner perimeter of the water tank ; and a power supply part electrically connected to the electrode parts , and configured to apply electrical pulses to the electrode parts , wherein the electrode parts extend in a horizontal direction partially or entirely over the inner perimeter of the water tank , and are arranged in a predetermined underwater region in the water tank wherein the electrode parts are provided at a height higher than half a height of the water tank or half a water level in the water tank . electrode parts arranged along an inner perimeter of the water tank ; and a power supply part electrically connected to the electrode parts , and configured to apply electrical pulses to the electrode parts , wherein the electrode parts extend in a horizontal direction partially or entirely over the inner perimeter of the water tank , and are arranged in a predetermined underwater region in the water tank wherein the electrode parts are provided at a height higher than half a height of the water tank or half a water level in the water tank .
Multicoupling comprising a first part comprising a first set of connectors; a second part comprising a second set of connectors; the first set of connectors comprising a plurality of couplings , or a plurality of nipples , or at least one coupling and at least one nipple , or at least one electric contact and at least one of a coupling or a nipple ; the second set of connectors comprising, correspondingly, a plurality of couplings , or a plurality of nipples , or at least one coupling and at least one nipple , or at least one electric contact and at least one of a coupling or a nipple ; rotational means for connecting the first part and second part , the rotational means having a substantially cylindrical form and comprising a spiral track; and control means , the control means is one or more of the following group: valve, pilot valve, check valve, return valve, switch, electric switch, control system, a locking mechanism, and a release mechanism; the rotational means acting directly on the control means , characterized in that , by rotation of the rotational means a displacement in a radial direction of the rotational means is caused and thereby a displacement of the control means for at least one connector of the first and/or second set of connectors; and wherein the rotational means and the control means are in one and the same first part or second part .
A method , performed by a source base station , for handover of a wireless device from a source cell served by the source base station to a target cell served by a target base station, the method comprising: receiving , from the target base station, a handover command for a random access channel-less, RACH-less, handover of the wireless device to the target cell, the command comprising configuration information about times for uplink grants in the target cell and a validity time for the uplink grants, the validity time specified in terms of a System Frame Number, SFN, value of the source cell or the target cell, said validity time indicating a time at which a fallback to a random access channel, RACH, procedure for accessing the target cell should be initiated by the wireless device ; and transmitting the handover command to the wireless device . receiving , from the target base station, a handover command for a random access channel-less, RACH-less, handover of the wireless device to the target cell, the command comprising configuration information about times for uplink grants in the target cell and a validity time for the uplink grants, the validity time specified in terms of a System Frame Number, SFN, value of the source cell or the target cell, said validity time indicating a time at which a fallback to a random access channel, RACH, procedure for accessing the target cell should be initiated by the wireless device ; and transmitting the handover command to the wireless device .
A method for rendering a multi-resolution scene with temporal anti-aliasing within a head mounted display (HMD), comprising: rendering , using a graphics processing unit, a scene including a series of video frames; applying anti-aliasing to a first region of the scene using a first jitter offset to jitter a sampling position associated with the first region; applying anti-aliasing to a second region of the scene using a second jitter offset to jitter a sampling position associated with the second region; generating a foveated scene that includes the first region of the scene and the second region of the scene; and sending the foveated scene for display on a display associated with the HMD, wherein the first region is associated with a higher resolution than the second region, and the first jitter offset is smaller than the second jitter offset, the method being characterised in that the first jitter offset and second jitter offset are used to jitter the sampling positions associated with the first region and the second region for every other video frame of the series of video frames. rendering , using a graphics processing unit, a scene including a series of video frames; applying anti-aliasing to a first region of the scene using a first jitter offset to jitter a sampling position associated with the first region; applying anti-aliasing to a second region of the scene using a second jitter offset to jitter a sampling position associated with the second region; generating a foveated scene that includes the first region of the scene and the second region of the scene; and sending the foveated scene for display on a display associated with the HMD, wherein the first region is associated with a higher resolution than the second region, and the first jitter offset is smaller than the second jitter offset, the method being characterised in that the first jitter offset and second jitter offset are used to jitter the sampling positions associated with the first region and the second region for every other video frame of the series of video frames.
Transmission (TGR) having a shaft-hub connection (SHC) which is formed as a serration (SRT) and has an axial extent along a shaft axis (SHX), wherein an oil supply line (OLS) of the serration (SRT) is provided in order to lubricate relative movements occurring in the serration (SRT) between a shaft side (SFS) and a hub side (HBS) of the shaft-hub connection (SHC), wherein the oil supply line (OLS) opens from radially inward directly into a cavity (CAV) on the serration (SRT) such that the serration (SRT) can be supplied with the oil (OIL) at the oil pressure (OPR) prevailing in the cavity (CAV), and the shaft (CSH, CS1, CS2) of the shaft-hub connection (SHC) at least partially delimits an axially extending supply channel communicating with the oil supply line (OLS), characterized in that the supply channel is delimited radially inwardly by a pitch tube (PAT) which corotates with the shaft (CSH, CS1, CS2), and the shaft (CSH, CS1, CS2) and pitch tube (PAT) form a double-walled pitch tube. the shaft (CSH, CS1, CS2) of the shaft-hub connection (SHC) at least partially delimits an axially extending supply channel communicating with the oil supply line (OLS), characterized in that the supply channel is delimited radially inwardly by a pitch tube (PAT) which corotates with the shaft (CSH, CS1, CS2), and the shaft (CSH, CS1, CS2) and pitch tube (PAT) form a double-walled pitch tube.
A process for producing a crystalline Form C of romidepsin comprising characteristic XRPD peaks at about 8.28, 11.45, 12.19 and 21.13 degrees 2θ, the process comprising serial seeding of saturated solution of Form A of romidepsin with solids containing Form C of romidepsin, wherein the serial seeding comprises at least three sequential seeding procedures.