mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving a selection of an application type; selecting a power management class as a function of the application type; and adjusting resources of a mobile unit as a function of the power management class, wherein adjusting the resources of the mobile unit includes providing power to a first plurality of resources and removing power from a second plurality of resources of the mobile unit , wherein the selection of the power management class remains in effect for a duration of time in which the application type is selected. receiving a selection of an application type; selecting a power management class as a function of the application type; and adjusting resources of a mobile unit as a function of the power management class, wherein adjusting the resources of the mobile unit includes providing power to a first plurality of resources and removing power from a second plurality of resources of the mobile unit , wherein the selection of the power management class remains in effect for a duration of time in which the application type is selected.
A tire tread comprising: a tread cap comprising at least one tread cap rubber compound for contacting a road when driving, at least three circumferential grooves , wherein at least portions of sidewalls and the bottom of each of said grooves are formed by a circumferential groove reinforcement , and wherein a first groove reinforcement of a first groove laterally next to the equatorial plane (EP) of the tire comprises a first reinforcement rubber compound which has a higher Shore A hardness than the tread cap rubber compound, and wherein a second groove reinforcement of a groove with a larger lateral distance to the equatorial plane (EP) of the tire than the first groove, characterized in that the second groove reinforcement comprises a second reinforcement rubber compound which has a higher Shore A hardness than the tread cap rubber compound and a lower Shore A hardness than the first reinforcement rubber compound. a tread cap comprising at least one tread cap rubber compound for contacting a road when driving, at least three circumferential grooves , wherein at least portions of sidewalls and the bottom of each of said grooves are formed by a circumferential groove reinforcement , and wherein a first groove reinforcement of a first groove laterally next to the equatorial plane (EP) of the tire comprises a first reinforcement rubber compound which has a higher Shore A hardness than the tread cap rubber compound, and wherein a second groove reinforcement of a groove with a larger lateral distance to the equatorial plane (EP) of the tire than the first groove, characterized in that the second groove reinforcement comprises a second reinforcement rubber compound which has a higher Shore A hardness than the tread cap rubber compound and a lower Shore A hardness than the first reinforcement rubber compound.
A preparation machine comprising: a blade assembly having a plurality of arms and braid blades mounted to the corresponding arms, the arms and the braid blades being disposed about a cable opening configured to receive an end of a cable therein along a cable axis , the arms being movable relative to each other between retracted positions and advanced positions, the arms moving the braid blades closer to each other within the cable opening as the arms are moved from the retracted positions to the advanced positions, the braid blades having edges configured to engage a cable braid (1 56) of the cable to cut the cable braid; and a mandrel coupleable to the end of the cable between the cable braid and an inner insulator of the cable, the mandrel including a shear feature defined by an outer surface of the mandrel, wherein the edges of the braid blades are configured to close towards the shear feature to cut the cable braid between the braid blade and the shear feature ; characterized in that when the braid blades are rotated around the cable axis pressing the cable braid between the edges of the braid blades and the mandrel the cable braid is cut. a blade assembly having a plurality of arms and braid blades mounted to the corresponding arms, the arms and the braid blades being disposed about a cable opening configured to receive an end of a cable therein along a cable axis , the arms being movable relative to each other between retracted positions and advanced positions, the arms moving the braid blades closer to each other within the cable opening as the arms are moved from the retracted positions to the advanced positions, the braid blades having edges configured to engage a cable braid (1 56) of the cable to cut the cable braid; and a mandrel coupleable to the end of the cable between the cable braid and an inner insulator of the cable, the mandrel including a shear feature defined by an outer surface of the mandrel, wherein the edges of the braid blades are configured to close towards the shear feature to cut the cable braid between the braid blade and the shear feature ; characterized in that when the braid blades are rotated around the cable axis pressing the cable braid between the edges of the braid blades and the mandrel the cable braid is cut.
Folding mechanism, which contains a rail which forms a guide for a series of runners which are slideable in relation to each other on the rail , whereby each runner or at least a part of each runner is provided with a rib which is attached hingeably on the runner around a shaft , which shaft extends largely perpendicular tc the longitudinal direction (X-X') of the rail , between an open position whereby the ribs are turned away from the rail and a closed position whereby the ribs are turned towards the rail and whereby at least some of the ribs located on the same side of the rail are connected with each other by means of a transmission which, when sliding the runners towards or away from each other on the rail , makes the ribs hinge on the runners , whereby the transmission is such that it keeps the ribs parallel to each other while opening and closing the folding mechanism , characterized in that said transmission is formed by an articulated connection connecting two of said ribs with each other, said articulated connection is connected with each of the two ribs via a hinge connection around the longitudinal axis of said ribs , whereby between said two ribs , the articulated connection is provided with at least one articulation with a shaft that runs parallel with the ribs .
Delivery device comprising: - a main body ; - a first mixer tap , for sanitary water, coupled with said main body ; - a second tap , for treated water, coupled with said main body ; - a dispensing pipe connected movably to said main body , and rotatably adjustable, during normal operation, around a vertical axis (X) with respect to said main body , - a first connection and a second connection for connecting said main body to respective sources of hot sanitary water and of cold sanitary water, for supplying the hot water and the cold water respectively, - further connecting means for connecting said main body to a source of treated water, said first connection and second connection extending along a plane (P) arranged transversely to said vertical axis (X), and configured for enabling said main body to be fixed to a vertical surface , in particular a wall, said first connection and said second connection being distinct and separate from one another and projecting according to respective axes (A1; A2) which, in the installed operating configuration, are oriented orthogonally to said vertical surface , said further connecting means comprising a connection portion that is distinct and separate from said first connection and second connection and is obtained on said main body , on a rear zone of the main body near the first connection for enabling a supply pipe connected to a purification and/or refrigeration and/or water carbonation unit (U) to be connected to said main body , wherein in said main body a first path is defined for the hot water and a second path is defined for the cold water that extend to enable the cold and hot water to flow to said first mixer tap , wherein in said main body a third path is defined for the mixed hot/cold water exiting said first mixer tap , said third mixer path connecting said first mixer tap to said dispensing pipe , and wherein in said main body a fourth path for the treated water is defined, which connects said connection portion to said second tap and to said dispensing pipe , said fourth path being configured for maintaining the flow of treated water separate from the flow of sanitary water. - a main body ; - a first mixer tap , for sanitary water, coupled with said main body ; - a second tap , for treated water, coupled with said main body ; - a dispensing pipe connected movably to said main body , and rotatably adjustable, during normal operation, around a vertical axis (X) with respect to said main body , - a first connection and a second connection for connecting said main body to respective sources of hot sanitary water and of cold sanitary water, for supplying the hot water and the cold water respectively, - further connecting means for connecting said main body to a source of treated water,
A process for carbon capture and sequestration by injection of liquefied biomass in a subsurface formation having a porous medium, the process comprising the steps of: transforming a carbon-containing biomass into a liquid bio-oil containing oxygenated organic compounds; determining a liquid bio-oil injection rate based on a parameter selected from the group consisting of viscosity of the liquid bio-oil, in-situ formation pressure, fluid transmissibility of the subsurface formation, mobility of in-situ reservoir fluids, and combinations thereof; and injecting the liquid bio-oil into the subsurface formation via a wellbore in the subsurface formation at an injection pressure sufficient to cause fracturing of a portion of the subsurface formation proximate the wellbore, thereby sequestering carbon in the subsurface formation. transforming a carbon-containing biomass into a liquid bio-oil containing oxygenated organic compounds; determining a liquid bio-oil injection rate based on a parameter selected from the group consisting of viscosity of the liquid bio-oil, in-situ formation pressure, fluid transmissibility of the subsurface formation, mobility of in-situ reservoir fluids, and combinations thereof; and injecting the liquid bio-oil into the subsurface formation via a wellbore in the subsurface formation at an injection pressure sufficient to cause fracturing of a portion of the subsurface formation proximate the wellbore, thereby sequestering carbon in the subsurface formation.
A method performed by a wireless device for reporting and logging an event in a wireless communication network, the method comprising: - determining that an event is to be logged and/or reported, - determining if the location of the wireless device is a known location or is the same location as the last time the event was logged and/or reported, the method being further characterised in that : - when the location of the wireless device is a known location or the same location as the last time the event was logged and/or reported, the method comprises logging and reporting to a network node, according to an enhanced reporting and logging functionality, wherein the enhanced reporting and logging functionality comprises reporting and/or logging according to a short format, wherein the short format is a measurement ID for a previously reported measurement; and - when the location of the wireless device is not a known location or is not the same location as the last time the event was logged and/or reported, the method comprises determining the location of the wireless device, transmitting the location of the device to the network node, and storing the location of the wireless device. - determining that an event is to be logged and/or reported, - determining if the location of the wireless device is a known location or is the same location as the last time the event was logged and/or reported, the method being further characterised in that : - when the location of the wireless device is a known location or the same location as the last time the event was logged and/or reported, the method comprises logging and reporting to a network node, according to an enhanced reporting and logging functionality, wherein the enhanced reporting and logging functionality comprises reporting and/or logging according to a short format, wherein the short format is a measurement ID for a previously reported measurement; and - when the location of the wireless device is not a known location or is not the same location as the last time the event was logged and/or reported, the method comprises determining the location of the wireless device, transmitting the location of the device to the network node, and storing the location of the wireless device. - when the location of the wireless device is a known location or the same location as the last time the event was logged and/or reported, the method comprises logging and reporting to a network node, according to an enhanced reporting and logging functionality, wherein the enhanced reporting and logging functionality comprises reporting and/or logging according to a short format, wherein the short format is a measurement ID for a previously reported measurement; and - when the location of the wireless device is not a known location or is not the same location as the last time the event was logged and/or reported, the method comprises determining the location of the wireless device, transmitting the location of the device to the network node, and storing the location of the wireless device.
A secondary battery , comprising: a shell having an opening; an electrode assembly , which is accommodated in the shell , wherein the electrode assembly comprises a first electrode plate; a cap assembly comprising a cap plate and a first electrode terminal, wherein the cap plate is configured to cover the opening, wherein the cap plate has an electrode lead-out hole covered by the first electrode terminal which is configured to connect to a busbar; a lower insulator , provided with a through hole in correspondence with the electrode lead-out hole ; and a wiring board , configured to electrically connect the first electrode plate with the first electrode terminal, wherein the wiring board is disposed inside the shell , the wiring board comprises a main body portion and an extension portion connected to the main body portion , the main body portion is located at a side of the cap plate facing the shell and is insulated from the cap plate by the lower insulator , the main body portion is configured to connect with the first electrode plate, the extension portion is configured to extend into the electrode lead-out hole to connect with the first electrode terminal, and the first electrode terminal is disposed at the same level as or higher than a surface of the lower insulator away from the cap plate , wherein the main body portion is sheet-like and configured to extend in a direction parallel to the cap plate . a shell having an opening; an electrode assembly , which is accommodated in the shell , wherein the electrode assembly comprises a first electrode plate; a cap assembly comprising a cap plate and a first electrode terminal, wherein the cap plate is configured to cover the opening, wherein the cap plate has an electrode lead-out hole covered by the first electrode terminal which is configured to connect to a busbar; a lower insulator , provided with a through hole in correspondence with the electrode lead-out hole ; and a wiring board , configured to electrically connect the first electrode plate with the first electrode terminal, wherein the wiring board is disposed inside the shell , the wiring board comprises a main body portion and an extension portion connected to the main body portion , the main body portion is located at a side of the cap plate facing the shell and is insulated from the cap plate by the lower insulator , the main body portion is configured to connect with the first electrode plate, the extension portion is configured to extend into the electrode lead-out hole to connect with the first electrode terminal, and the first electrode terminal is disposed at the same level as or higher than a surface of the lower insulator away from the cap plate , wherein the main body portion is sheet-like and configured to extend in a direction parallel to the cap plate .
Transmission/reception device (12; 120) for a bus system , having a transmitter for transmitting a transmission signal (TxD) to a first bus wire of a bus of the bus system , which bus system exhibits at least intermittently ensured exclusive collision-free access by a subscriber station to the bus of the bus system , and for transmitting the transmission signal (TxD) to a second bus wire of the bus , a receiver for receiving the bus signal (CAN_H, CAN_L) transmitted on the bus wires , and an emission reduction unit (15; 150) for controlling the signals for the bus wires on the basis of a detected level of a differential bus voltage (VDIFF) of the signals on the bus wires is configured when a dominant state of the transmission signal (TxD) occurs, characterized in that the emission reduction unit (15; 150) is configured to determine that, for a changing bus load, the level of the differential bus voltage (VDIFF) is always set to be as low as possible, but safely above a required minimum value.
Towing device for drag lifts with conveyor rope guide with - a housing part for fixing to the conveyor rope (F), - a rope reel mounted rotatably relative to the housing part about an axis of rotation (R ax ) with a rope receiving space for receiving a towing rope , and with a permanent magnet eddy current brake for braking the cable reel , comprising two magnetically interacting eddy current brake disks spaced apart by a gap distance (S1, S2), of which at least one eddy current brake disk comprises an electrically conductive conductor disk and another eddy current brake disk comprises a magnetic disk with a plurality of, preferably round, permanent magnets , wherein one of the eddy current brake disks is coupled, preferably non-rotatably, to the rope reel and the other of the eddy current brake disks is coupled to the housing part , characterized in that at least one of the eddy current brake discs is coupled to the rope reel or to the housing part by means of adjusting kinematics in such a way that the gap distance (S1, S2) between the eddy current brake discs is smaller in a first winding direction (R1) of the rope reel than in an opposite, second winding direction (R2) of the rope reel . - a housing part for fixing to the conveyor rope (F), - a rope reel mounted rotatably relative to the housing part about an axis of rotation (R ax ) with a rope receiving space for receiving a towing rope , and with a permanent magnet eddy current brake for braking the cable reel , comprising two magnetically interacting eddy current brake disks spaced apart by a gap distance (S1, S2), of which at least one eddy current brake disk comprises an electrically conductive conductor disk and another eddy current brake disk comprises a magnetic disk with a plurality of, preferably round, permanent magnets , wherein one of the eddy current brake disks is coupled, preferably non-rotatably, to the rope reel and the other of the eddy current brake disks is coupled to the housing part , characterized in that at least one of the eddy current brake discs is coupled to the rope reel or to the housing part by means of adjusting kinematics in such a way that the gap distance (S1, S2) between the eddy current brake discs is smaller in a first winding direction (R1) of the rope reel than in an opposite, second winding direction (R2) of the rope reel .
A data management method comprising: allocating an exclusive buffer (220, 350 - 390, 750 - 770) for an application based on request information associated with data requested by the application , wherein the buffer comprise a first buffer dedicated to storing first sensor data generated by a first sensor and a second buffer dedicated to storing second sensor data generated by a second sensor ; storing sensor data corresponding to the request information in the buffer; synchronizing the first buffer and the second buffer; and transferring the sensor data stored in the buffer to the application in response to a cumulative amount of the sensor data in the buffer satisfying an amount of the data requested by the application , wherein the synchronizing comprises discarding data received in the first buffer until an amount of data corresponding to a preset ratio is stored in the second buffer after the amount of data corresponding to the preset ratio is stored in the first buffer, or wherein the synchronizing comprises storing data received in the first buffer in a spare buffer until an amount of data corresponding to a preset ratio is stored in the second buffer after the amount of data corresponding to the preset ratio is stored in the first buffer. allocating an exclusive buffer (220, 350 - 390, 750 - 770) for an application based on request information associated with data requested by the application , wherein the buffer comprise a first buffer dedicated to storing first sensor data generated by a first sensor and a second buffer dedicated to storing second sensor data generated by a second sensor ; storing sensor data corresponding to the request information in the buffer; synchronizing the first buffer and the second buffer; and transferring the sensor data stored in the buffer to the application in response to a cumulative amount of the sensor data in the buffer satisfying an amount of the data requested by the application , wherein the synchronizing comprises discarding data received in the first buffer until an amount of data corresponding to a preset ratio is stored in the second buffer after the amount of data corresponding to the preset ratio is stored in the first buffer, or wherein the synchronizing comprises storing data received in the first buffer in a spare buffer until an amount of data corresponding to a preset ratio is stored in the second buffer after the amount of data corresponding to the preset ratio is stored in the first buffer.
A system for monitoring a patient on an air support system, the system comprising: a capacitive sensor system having a capacitive sensor positioned at the underside of an air filled mattress, the capacitive sensor system configured to determine whether the air support system should be inflated or deflated; a respiration signal processing module that receives the output of the capacitive sensor system and is configured to monitor patient respiration by: periodically sampling the capacitive sensor system output to obtain measurements of incremental body displacement; analysing a plurality of the samples to determine one or more values for parameters of patient respiratory rate; and determining when one or more of the parameter values indicate abnormal respiration. a capacitive sensor system having a capacitive sensor positioned at the underside of an air filled mattress, the capacitive sensor system configured to determine whether the air support system should be inflated or deflated; a respiration signal processing module that receives the output of the capacitive sensor system and is configured to monitor patient respiration by: periodically sampling the capacitive sensor system output to obtain measurements of incremental body displacement; analysing a plurality of the samples to determine one or more values for parameters of patient respiratory rate; and periodically sampling the capacitive sensor system output to obtain measurements of incremental body displacement; analysing a plurality of the samples to determine one or more values for parameters of patient respiratory rate; and determining when one or more of the parameter values indicate abnormal respiration.