mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: transmitting an indication of a capability of a wireless device on resources of a first carrier; receiving a configuration message on resources of the first carrier in a first narrowband region of an unlicensed radio frequency spectrum band; identifying , based at least in part on the configuration message, a configuration of one or more additional carriers that are each in a different narrowband region of the unlicensed radio frequency spectrum band, wherein the wherein the number of the one or more additional carriers in the configuration is based at least in part on the capability of the wireless device; receiving , on resources of the first carrier, an assignment of resources on the one or more additional carriers in the different narrowband regions of the unlicensed radio frequency spectrum band; and communicating on the one or more additional carriers in the different narrowband regions of the unlicensed radio frequency spectrum band according to the assignment. transmitting an indication of a capability of a wireless device on resources of a first carrier; receiving a configuration message on resources of the first carrier in a first narrowband region of an unlicensed radio frequency spectrum band; identifying , based at least in part on the configuration message, a configuration of one or more additional carriers that are each in a different narrowband region of the unlicensed radio frequency spectrum band, wherein the wherein the number of the one or more additional carriers in the configuration is based at least in part on the capability of the wireless device; receiving , on resources of the first carrier, an assignment of resources on the one or more additional carriers in the different narrowband regions of the unlicensed radio frequency spectrum band; and communicating on the one or more additional carriers in the different narrowband regions of the unlicensed radio frequency spectrum band according to the assignment.
Multiple injection line for a particle-accelerating cavity, comprising: - at least two ion sources , - a first-harmonic resonant cavity comprising an enclosure and at least two drift tubes which are each associated with a respective source , these drift tubes being disposed in the enclosure, being electrically connected to one another and being connected to the enclosure by a conductor , characterized by - second-harmonic resonant cavities , each associated with a respective ion source , comprising an enclosure and a drift tube which is electrically connected to the enclosure by a conductor . - at least two ion sources , - a first-harmonic resonant cavity comprising an enclosure and at least two drift tubes which are each associated with a respective source , these drift tubes being disposed in the enclosure, being electrically connected to one another and being connected to the enclosure by a conductor , characterized by - second-harmonic resonant cavities , each associated with a respective ion source , comprising an enclosure and a drift tube which is electrically connected to the enclosure by a conductor .
A thermal transfer sheet comprising a peel-off layer on a substrate, wherein the peel-off layer contains a polyester-type resin having a glass transition temperature (Tg) of not less than 50°C and not more than 120°C, characterized in that the polyester-type resin has a number average molecular weight (Mn) of not less than 3500 and less than 9000.
A polymer comprising: 1,4-polybutadiene having a cis content of about 85% to about 89%, a vinyl content of about 1% to about 3%, and a trans content of about 5% to about 10%, wherein the polymer has an enthalpy of melting ΔH m of about 5 to about 25 J/g°C as measured via differential scanning calorimetry (DSC), and wherein the polymer has a number average molecular weight of about 80,000 g/mol to about 120,000 g/mol. 1,4-polybutadiene having a cis content of about 85% to about 89%, a vinyl content of about 1% to about 3%, and a trans content of about 5% to about 10%, wherein the polymer has an enthalpy of melting ΔH m of about 5 to about 25 J/g°C as measured via differential scanning calorimetry (DSC), and wherein the polymer has a number average molecular weight of about 80,000 g/mol to about 120,000 g/mol.
An engine control method, comprising: determining an intention of a driver for acceleration during vehicle traveling; stopping fuel supply to an engine when it is determined that the driver does not have the intention for acceleration; detecting a speed of the vehicle during inertial traveling, with fuel supply to the engine kept stopped; permitting restart of the engine when it is determined that the driver has the intention for acceleration after stopping the fuel supply to the engine ; prohibiting the restart of the engine until an engine rotational speed drops to or below a predetermined rotational speed threshold, even when the restart of the engine is permitted; restarting the engine after the engine rotational speed drops to or below the predetermined rotational speed threshold; and changing the rotational speed threshold depending on the detected vehicle speed, characterized by determining whether the engine is in forward rotation or reverse rotation; permitting the restart of the engine when the engine rotational speed of the engine during forward rotation is equal to or less than a first rotational speed threshold differing depending on the detected vehicle speed; and permitting the restart of the engine when the engine rotational speed of the engine during reverse rotation is equal to or less than a second rotational speed threshold differing depending on the detected vehicle speed, wherein the rotational speed threshold increases with increase in the detected vehicle speed. determining an intention of a driver for acceleration during vehicle traveling; stopping fuel supply to an engine when it is determined that the driver does not have the intention for acceleration; detecting a speed of the vehicle during inertial traveling, with fuel supply to the engine kept stopped; permitting restart of the engine when it is determined that the driver has the intention for acceleration after stopping the fuel supply to the engine ; prohibiting the restart of the engine until an engine rotational speed drops to or below a predetermined rotational speed threshold, even when the restart of the engine is permitted; restarting the engine after the engine rotational speed drops to or below the predetermined rotational speed threshold; and changing the rotational speed threshold depending on the detected vehicle speed, characterized by determining whether the engine is in forward rotation or reverse rotation; permitting the restart of the engine when the engine rotational speed of the engine during forward rotation is equal to or less than a first rotational speed threshold differing depending on the detected vehicle speed; and permitting the restart of the engine when the engine rotational speed of the engine during reverse rotation is equal to or less than a second rotational speed threshold differing depending on the detected vehicle speed, wherein the rotational speed threshold increases with increase in the detected vehicle speed.
Radio node for a Radio Access Network, the radio node being adapted for communicating in the Radio Access Network based on a scheduled slot aggregation comprising a plurality of slots consecutive in time, wherein a slot format of at least one slot of the slot aggregation is adapted based on a structure of the slot aggregation, the structure of the slot aggregation indicating the number of slots of the slot aggregation; the scheduled slot aggregation being configured to the radio node , wherein adapting the slot aggregation based on the structure of the slot aggregation is based on receiving control information indicating which slot format/s to use, and wherein for different slots of the slot aggregation, different slot formats are adapted. wherein a slot format of at least one slot of the slot aggregation is adapted based on a structure of the slot aggregation, the structure of the slot aggregation indicating the number of slots of the slot aggregation; the scheduled slot aggregation being configured to the radio node , wherein adapting the slot aggregation based on the structure of the slot aggregation is based on receiving control information indicating which slot format/s to use, and wherein for different slots of the slot aggregation, different slot formats are adapted.
A heat transfer tube with an outer surface comprising a plurality of outwardly extending fins with channels extending between adjacent fins , the channels extending at a first angle (α) to a longitudinal axis of the tube, the first angle (α) being between 85 and 89,5 degrees, a plurality of cuts formed on the fins , the cuts extending at a second angle (β) to a longitudinal axis of the tube, the second angle (β) different from the first angle (α), the cuts producing fin segments , each fin segment comprising a stem , a top surface, and a deformed edge extending from and bending downwardly from the top surface, the deformed edge at least partially overlapping the cut adjacent to the fin segment , characterized in that the deformed edge is bending downwardly from the top surface substantially to the channel . a plurality of outwardly extending fins with channels extending between adjacent fins , the channels extending at a first angle (α) to a longitudinal axis of the tube, the first angle (α) being between 85 and 89,5 degrees, a plurality of cuts formed on the fins , the cuts extending at a second angle (β) to a longitudinal axis of the tube, the second angle (β) different from the first angle (α), the cuts producing fin segments , each fin segment comprising a stem , a top surface, and a deformed edge extending from and bending downwardly from the top surface, the deformed edge at least partially overlapping the cut adjacent to the fin segment , characterized in that the deformed edge is bending downwardly from the top surface substantially to the channel .
A window processing system for use in fabricating window frames or sashes comprising: a) a cleaning station comprising one or more processing tools that are actuated to move relative to selected portions of a window frame or sash ; b) one or more non-contact sensors and one or more tactile sensors (S) for inspecting a profile of the window frame or sash ; and c) a controller coupled to the sensors for monitoring an output from the sensors during a cleaning compensation stage to determine irregularities occurring during fabrication of the frame or sash or dimensional variations differing from a nominal frame or sash size and then adjusting movement of the cleaning tools in relation to the frame or sash to clean specified one or more locations of the window frame or sash based on a sensed profile of the window frame or sash . a) a cleaning station comprising one or more processing tools that are actuated to move relative to selected portions of a window frame or sash ; b) one or more non-contact sensors and one or more tactile sensors (S) for inspecting a profile of the window frame or sash ; and c) a controller coupled to the sensors for monitoring an output from the sensors during a cleaning compensation stage to determine irregularities occurring during fabrication of the frame or sash or dimensional variations differing from a nominal frame or sash size and then adjusting movement of the cleaning tools in relation to the frame or sash to clean specified one or more locations of the window frame or sash based on a sensed profile of the window frame or sash .
A fitment for a sliding door of a shower partition , the door being mounted displaceably along a longitudinal extent (LE) of a guide profile member , comprising - a suspension which can be connected to the sliding door , - at least one running member mounted to the suspension , the running member being mounted displaceably along the longitudinal extent (LE) of the guide profile member , and - an adjusting device for adjusting the position of the at least one running member relative to the suspension along an adjustment axis (SA), wherein the adjusting device extends along the adjusting axis (SA), wherein the adjusting axis (SA) in the position of installation of the fitment is oriented inclinedly relative to the longitudinal axis (LE) of the guide profile member , characterised by a locking device which can be inserted into the suspension axially in the direction of the adjusting axis (SA) for arresting the position of the adjusting device , the locking device being formed by a screw, preferably a grub screw. - a suspension which can be connected to the sliding door , - at least one running member mounted to the suspension , the running member being mounted displaceably along the longitudinal extent (LE) of the guide profile member , and - an adjusting device for adjusting the position of the at least one running member relative to the suspension along an adjustment axis (SA), wherein the adjusting device extends along the adjusting axis (SA), wherein the adjusting axis (SA) in the position of installation of the fitment is oriented inclinedly relative to the longitudinal axis (LE) of the guide profile member ,
An engine-driven tool comprising a rotatable work tool , having a center and a circumference , and an engine that is arranged to propel the rotatable work tool , where the engine-driven tool further comprises a shielding cover that is arranged to shield a part of the rotatable work tool , and a first swiveling part that is attached by means of a first swivel attachment and partly extends either inside or outside the shielding cover , allowing the first swiveling part to pivot around a first swivel axis that crosses the rotatable work tool closer to the center of the rotatable work tool than the circumference of the rotatable work tool , wherein the engine-driven tool comprises a second swiveling part that is attached to the first swiveling part and is intended to bear against a work surface , where the second swiveling part partly extends either inside or outside the first swiveling part , where the second swiveling part is attached to the first swiveling part by means of a second swivel attachment , allowing the second swiveling part to pivot around a second swivel axis that runs outside the circumference of the rotatable work tool , enabling the swiveling parts to self-adjust to the work surface such that the amount of dust that enters the shielding cover is increased.
A method for scheduling an edge CDN node, comprising: at a CDN scheduling center under a 5G network architecture: receiving a terminal request for a target domain name sent by a central layer UPF network element; in response to the terminal request being an HTTPDNS request, assigning a target edge CDN node to a terminal according to location information of the terminal carried in the terminal request; and in response to the terminal request being a conventional DNS request, assigning the target edge CDN node to the terminal according to a source IP address of the terminal request. receiving a terminal request for a target domain name sent by a central layer UPF network element; in response to the terminal request being an HTTPDNS request, assigning a target edge CDN node to a terminal according to location information of the terminal carried in the terminal request; and in response to the terminal request being a conventional DNS request, assigning the target edge CDN node to the terminal according to a source IP address of the terminal request.
A method for network monitoring, comprising: intercepting, in an anomaly detection module , data packets transmitted over a network to or from an entity on the network; and analyzing the intercepted data packets in order to detect anomalous behavior and to attribute the anomalous behavior to the entity, characterized in that the analyzing includes: extracting from the intercepted data packets, first data packets in accordance with a predefined protocol, that include both a network address that is assigned to the entity and a strong identity, which persistently identifies the entity, and which is incorporated in the first data packet in accordance with the predefined protocol, and recording in the anomaly detection module a respective association between the network address and the strong identity; identifying in the intercepted data packets, by the anomaly detection module, second data packets transmitted over the network and containing a specific network address; responsively to the recorded association and the specific network address, associating the second data packets with the strong identity; and analyzing the associated second data packets in order to detect anomalous behavior and to attribute the anomalous behavior to the entity. intercepting, in an anomaly detection module , data packets transmitted over a network to or from an entity on the network; and analyzing the intercepted data packets in order to detect anomalous behavior and to attribute the anomalous behavior to the entity, extracting from the intercepted data packets, first data packets in accordance with a predefined protocol, that include both a network address that is assigned to the entity and a strong identity, which persistently identifies the entity, and which is incorporated in the first data packet in accordance with the predefined protocol, and recording in the anomaly detection module a respective association between the network address and the strong identity; identifying in the intercepted data packets, by the anomaly detection module, second data packets transmitted over the network and containing a specific network address; responsively to the recorded association and the specific network address, associating the second data packets with the strong identity; and analyzing the associated second data packets in order to detect anomalous behavior and to attribute the anomalous behavior to the entity.
An arrangement for intentionally mistuning a cavity formed adjacent an impeller hub and another cavity formed when an impeller cover is provided in a turbomachine having "n"-diameter acoustic modes, the arrangement being characterised by at least two bladed elements defined within a perimeter of a casing wall on a hub side of the impeller , wherein the hub side of the impeller is opposite a cover side of the impeller , wherein the bladed elements are positioned to mistune the cavities to minimize acoustic pulsations in the cavities , wherein the at least two bladed elements are positioned adjacent the impeller . at least two bladed elements defined within a perimeter of a casing wall on a hub side of the impeller , wherein the hub side of the impeller is opposite a cover side of the impeller , wherein the bladed elements are positioned to mistune the cavities to minimize acoustic pulsations in the cavities ,
An apparatus for modulating one or more nerves within a body of a patient, the apparatus comprising: a source of energy configured for generating an electric field; a plurality of electrodes coupled to the source of energy; an interface coupled to the electrodes and configured for positioning against an outer skin surface of the patient, wherein the interface comprises two membranes and the apparatus further comprises two corresponding electrodes, and wherein the two corresponding electrodes are spaced from each membrane by about 0.25 to 4 times the diameter of the corresponding membrane; a conductive medium electrically coupling the electrodes with the interface; a housing having an outer enclosure enclosing the electrodes and the conductive medium, wherein at least a portion of the outer enclosure comprises the interface, and wherein the source of energy is configured to deliver one or more electrical impulses from the electrodes through the conductive medium to the interface, and the outer skin surface to a nerve at a target region within the patient. a source of energy configured for generating an electric field; a plurality of electrodes coupled to the source of energy; an interface coupled to the electrodes and configured for positioning against an outer skin surface of the patient, wherein the interface comprises two membranes and the apparatus further comprises two corresponding electrodes, and wherein the two corresponding electrodes are spaced from each membrane by about 0.25 to 4 times the diameter of the corresponding membrane; a conductive medium electrically coupling the electrodes with the interface; a housing having an outer enclosure enclosing the electrodes and the conductive medium, wherein at least a portion of the outer enclosure comprises the interface, and wherein the source of energy is configured to deliver one or more electrical impulses from the electrodes through the conductive medium to the interface, and the outer skin surface to a nerve at a target region within the patient.
A system for assessing orientation and dynamics of a hip arthroplasty component, the system comprising: an acetabular component including a magnetic component to emit a magnetic field; a femoral component including: a femoral head configured to be accommodated by the acetabular component; and a sensor (108, 204A-C) to detect the magnetic field; and processing circuitry to: receive information from the sensor about the magnetic field; determining a relative orientation of the femoral component with respect to the acetabular component based at least in part on the information received from the sensor; and output an indication based on the relative orientation. an acetabular component including a magnetic component to emit a magnetic field; a femoral component including: a femoral head configured to be accommodated by the acetabular component; and a sensor (108, 204A-C) to detect the magnetic field; and a femoral head configured to be accommodated by the acetabular component; and a sensor (108, 204A-C) to detect the magnetic field; and processing circuitry to: receive information from the sensor about the magnetic field; determining a relative orientation of the femoral component with respect to the acetabular component based at least in part on the information received from the sensor; and output an indication based on the relative orientation. receive information from the sensor about the magnetic field; determining a relative orientation of the femoral component with respect to the acetabular component based at least in part on the information received from the sensor; and output an indication based on the relative orientation.
An integrated circuit for transmitting a data to a base station in subframes of a wireless communication system, the integrated circuit being for use in a user equipment, UE , and adapted to: receive from the base station an uplink grant for transmitting data on predetermined resources of an uplink carrier; detect by carrier sensing whether or not the predetermined resources are available for transmission; if the predetermined resources are detected to be available for transmission, transmit data in the predetermined resources, characterized by being adapted to, if the predetermined resources are detected to be available for transmission, transmit to the base station a transmission confirmation indication indicating that the data has been transmitted. receive from the base station an uplink grant for transmitting data on predetermined resources of an uplink carrier; detect by carrier sensing whether or not the predetermined resources are available for transmission; if the predetermined resources are detected to be available for transmission, transmit data in the predetermined resources, characterized by being adapted to, if the predetermined resources are detected to be available for transmission, transmit to the base station a transmission confirmation indication indicating that the data has been transmitted.