mhurhangee/patent-ind-claim-en huggingface dataset:
An introducer comprising a cylindrical shape with a smooth shape (704; 707; 711; 803) on its leading end for use with an insertion guide (7; 200, 207) that assists with insertion of a nasal bridle, the insertion guide being: elongate and made of flexible resilient material of a size suitable for insertion in a nasal passage: switchable between two configurations and comprising a tip portion (113; 1107a) that includes an exit aperture wherein when the guide is arranged in an introduction configuration, the exit aperture is either downwardly oriented at an angle to the guide longitudinal direction and / or displaced laterally from the guide longitudinal direction; such that when the introducer exits the aperture of the insertion guide placed in a first nasal passage such that the aperture is positioned above a nasal septum, the introducer is guided beyond the septum into the second nasal passage ; wherein the introducer has a low-profile join to a length of bridle tape at its trailing end. switchable between two configurations and comprising a tip portion (113; 1107a) that includes an exit aperture wherein when the guide is arranged in an introduction configuration, the exit aperture is either downwardly oriented at an angle to the guide longitudinal direction and / or displaced laterally from the guide longitudinal direction; such that
A terminal comprising: a receiving section configured to receive multiple downlink control information for scheduling downlink shared channels in a plurality of downlink control channels; and a control section configured to, when delivery acknowledgement information for the multiple downlink control information is to be transmitted in a same slot, determine an uplink control channel resource for the delivery acknowledgement information based on a control channel element, CCE, index of a downlink control channel corresponding to a specific downlink control information and based on a resource indication field in the specific downlink control information, characterised in that the specific downlink control information is a last downlink control information in a cell index ascending order of last downlink control information in a time domain index ascending order of the multiple downlink control information. a receiving section configured to receive multiple downlink control information for scheduling downlink shared channels in a plurality of downlink control channels; and a control section configured to, when delivery acknowledgement information for the multiple downlink control information is to be transmitted in a same slot, determine an uplink control channel resource for the delivery acknowledgement information based on a control channel element, CCE, index of a downlink control channel corresponding to a specific downlink control information and based on a resource indication field in the specific downlink control information, characterised in that the specific downlink control information is a last downlink control information in a cell index ascending order of last downlink control information in a time domain index ascending order of the multiple downlink control information.
A continuous vacuum glass member processing device, wherein the device comprises a loading table, front-end auxiliary vacuum chambers , a main vacuum chamber , back-end auxiliary vacuum chambers and an unloading table sequentially along the advancing direction of the glass; the device also comprises a glass plate conveying device and an electric control system ; the continuous vacuum glass member processing device being formed such that the glass plates on the loading table are sequentially conveyed to the front-end auxiliary vacuum chambers , the main vacuum chamber , the back-end auxiliary vacuum chambers and the unloading table through the conveying device ; the electric control system is suitable for controlling a vacuum sealing process and an equipment operation flow; the vacuum chambers are independent from one another and are provided with a vacuum obtaining system and a vacuum detection device respectively, the vacuum degrees of the front-end auxiliary vacuum chambers and the back-end auxiliary vacuum chambers are equal to or lower than the vacuum degree of the main vacuum chamber , and the two auxiliary vacuum chambers provide a transition vacuum space at the front and rear ends of the main vacuum chamber respectively; a plate combining device and a sealing device are arranged in the main vacuum chamber , the two devices can perform plate combining and sealing operations on the glass plates in the main vacuum chamber , and the input and output ends of the plate combining device are connected with the glass plate conveying devices positioned on the upstream and the downstream respectively; and both the front-end auxiliary vacuum chambers and the back-end auxiliary vacuum chambers have a modularized structure, the front and rear ends of the main vacuum chamber can be provided with one or more auxiliary vacuum chambers as required respectively, and the continuous vacuum glass member processing device is formed such that when a plurality of front-end auxiliary vacuum chambers and a plurality of back-end auxiliary vacuum chambers are deployed, the vacuum degrees of the front-end auxiliary vacuum chambers are gradually improved as close to the main vacuum chamber , and the vacuum degrees of the back-end auxiliary vacuum chambers are gradually reduced as away from the main vacuum chamber .
A method comprising: receiving allocation input identifying virtual computing resources to be attached to a computing session, the virtual computing resources including a first cluster of at least one virtual machine that operates on a first hardware-type and a second cluster of at least one virtual machine that executes on a second hardware-type, wherein the second hardware-type includes at least one hardware computing resource not present in the first hardware-type, and the second hardware-type has high-computing speed performance capabilities with regard to certain computing operations as compared to the same certain computing operations when performed by the first hardware-type; allocating virtual computing resources within a virtual computing environment to establish a computing session according to the allocation input and establishing secure connectivity between the allocated computing resources; initiating , within the first cluster, execution of a program that offloads at least one computing task to the second cluster to leverage a performance enhancing capability of the second hardware-type with regard to the certain computing operations; and upon completion of program execution, deallocating virtual machines of at least the second cluster. receiving allocation input identifying virtual computing resources to be attached to a computing session, the virtual computing resources including a first cluster of at least one virtual machine that operates on a first hardware-type and a second cluster of at least one virtual machine that executes on a second hardware-type, wherein the second hardware-type includes at least one hardware computing resource not present in the first hardware-type, and the second hardware-type has high-computing speed performance capabilities with regard to certain computing operations as compared to the same certain computing operations when performed by the first hardware-type; allocating virtual computing resources within a virtual computing environment to establish a computing session according to the allocation input and establishing secure connectivity between the allocated computing resources; initiating , within the first cluster, execution of a program that offloads at least one computing task to the second cluster to leverage a performance enhancing capability of the second hardware-type with regard to the certain computing operations; and upon completion of program execution, deallocating virtual machines of at least the second cluster.
A measurement probe apparatus , comprising; a probe body , a stylus that is deflectable relative to the probe body , one or more sensor elements for sensing deflection of the stylus relative to the probe body and generating a plurality of sensor signals (60a, 60b, 60c; 80a, 80b, 80c; 102a, 102b, 102c) indicative of stylus deflection, and an analyser for analysing the plurality of sensor signals, the analyser being arranged to combine at least two of the plurality of sensor signals to generate a resultant deflection signal (70,72,74; 90,92,94; 100; 110) for comparison to a deflection threshold (d1; 104; 112), characterised in that the analyser is also arranged to detect oscillatory motion of the stylus by analysing one or more of the plurality of sensor signals, whereby stylus contact with an object can be determined from the resultant deflection signal crossing the deflection threshold and no oscillatory motion of the stylus being detected from the analysis of the one or more of the plurality of sensor signals. a probe body , a stylus that is deflectable relative to the probe body , one or more sensor elements for sensing deflection of the stylus relative to the probe body and generating a plurality of sensor signals (60a, 60b, 60c; 80a, 80b, 80c; 102a, 102b, 102c) indicative of stylus deflection, and an analyser for analysing the plurality of sensor signals, the analyser being arranged to combine at least two of the plurality of sensor signals to generate a resultant deflection signal (70,72,74; 90,92,94; 100; 110) for comparison to a deflection threshold (d1; 104; 112), characterised in that the analyser is also arranged to detect oscillatory motion of the stylus by analysing one or more of the plurality of sensor signals, whereby stylus contact with an object can be determined from the resultant deflection signal crossing the deflection threshold and no oscillatory motion of the stylus being detected from the analysis of the one or more of the plurality of sensor signals.
Storage circuitry comprising: an array of storage locations arranged in rows and columns; a row buffer comprising a plurality of entries each to store information from a storage location at a corresponding column of an active row of the array; comparison circuitry responsive to a tag-matching command specifying a tag value to compare the tag value with information stored in each of a subset of entries of the row buffer, and to identify which of said subset of entries, if any, is a matching entry storing information matching the tag value, said subset comprising two or more entries of the row buffer; and control circuitry configured, in response to a hit condition when one of said subset of entries is identified as said matching entry in response to the tag-matching command, to trigger a read or write operation to read or write information stored in a target storage location selected in dependence on which entry of the row buffer is the matching entry; wherein said target storage location is another storage location in the same row of the array as the storage location corresponding to said matching entry of the row buffer. an array of storage locations arranged in rows and columns; a row buffer comprising a plurality of entries each to store information from a storage location at a corresponding column of an active row of the array; comparison circuitry responsive to a tag-matching command specifying a tag value to compare the tag value with information stored in each of a subset of entries of the row buffer, and to identify which of said subset of entries, if any, is a matching entry storing information matching the tag value, said subset comprising two or more entries of the row buffer; and control circuitry configured, in response to a hit condition when one of said subset of entries is identified as said matching entry in response to the tag-matching command, to trigger a read or write operation to read or write information stored in a target storage location selected in dependence on which entry of the row buffer is the matching entry;
An oxidative dehydrogenation (ODH) reactor system, comprising: a first reactor comprising a first ODH catalyst to dehydrogenate an alkane having a number of carbons in the range of 2 to 6 to a corresponding alkene at a first temperature and facilitate generation of steam, wherein the first reactor comprises a first-reactor jacket for heat transfer; a second reactor comprising a second ODH catalyst to dehydrogenate unreacted alkane having a number of carbons in the range of 2 to 6 in a first-reactor effluent from the first reactor to the corresponding alkene at a second temperature greater than the first temperature and facilitate generation of steam, wherein the second reactor comprises a second-reactorjacket for heat transfer; and a third reactor comprising a third ODH catalyst to dehydrogenate unreacted alkane having a number of carbons in the range of 2 to 6 in a second-reactor effluent from the second reactor to the corresponding alkene at a third temperature greater than the second temperature and facilitate generation of steam, wherein the third reactor comprises a third-reactor jacket for heat transfer. a first reactor comprising a first ODH catalyst to dehydrogenate an alkane having a number of carbons in the range of 2 to 6 to a corresponding alkene at a first temperature and facilitate generation of steam, wherein the first reactor comprises a first-reactor jacket for heat transfer; a second reactor comprising a second ODH catalyst to dehydrogenate unreacted alkane having a number of carbons in the range of 2 to 6 in a first-reactor effluent from the first reactor to the corresponding alkene at a second temperature greater than the first temperature and facilitate generation of steam, wherein the second reactor comprises a second-reactorjacket for heat transfer; and a third reactor comprising a third ODH catalyst to dehydrogenate unreacted alkane having a number of carbons in the range of 2 to 6 in a second-reactor effluent from the second reactor to the corresponding alkene at a third temperature greater than the second temperature and facilitate generation of steam, wherein the third reactor comprises a third-reactor jacket for heat transfer.
Device for extracting vapors comprising an intake housing and a blower , wherein the intake housing comprises an air inlet means , wherein the air inlet means has an upper wall and a lower wall which form an interior space with an inlet opening and wherein the air inlet means has a horizontal opening angle, wherein the horizontal opening angle (γ ), wherein the horizontal opening angle (y) has legs which are applied to the lateral inner walls formed by the upper wall and/or by the lower wall , wherein at least the upper wall has on an inner side a corrugated shape with at least two upwardly curved surface sections , wherein at least in the region of the upwardly curved surface sections the interior space has widenings .
Drinking vessel for receiving a liquid suitable for consumption, composed of a drink container with a body that compensates changes of the liquid level (S) in the drink container , wherein - the compensating body comprises an elastic component which, under the weight force (F) of a liquid volume, enlarges its shape, and which, when the acting weight force (F) ceases, returns the compensating body to its smaller original shape, and - the compensating body is composed at least of the elastic component and of a fastening component for retaining the compensating body in the drink container , characterized in that the drinking vessel has a ventilation device , - wherein the ventilation device connects an interior , created by the compensating body , to the ambient air, such that air can flow into and out of the interior as soon as the compensating body changes its shape, - and wherein the ventilation device is designed as - ventilation grooves formed only on the inner wall of the drink container - and as ventilation grooves of the fastening component , on the underside of the fastening component , as a result of which the air in the interior of the drink container can escape through the ventilation grooves of the fastening component and through the ventilation grooves of the inner wall of the drink container during the filling process and drinking process. - the compensating body comprises an elastic component which, under the weight force (F) of a liquid volume, enlarges its shape, and which, when the acting weight force (F) ceases, returns the compensating body to its smaller original shape, and - the compensating body is composed at least of the elastic component and of a fastening component for retaining the compensating body in the drink container , - wherein the ventilation device connects an interior , created by the compensating body , to the ambient air, such that air can flow into and out of the interior as soon as the compensating body changes its shape, - and wherein the ventilation device is designed as - ventilation grooves formed only on the inner wall of the drink container - and as ventilation grooves of the fastening component , on the underside of the fastening component , as a result of which the air in the interior of the drink container can escape through the ventilation grooves of the fastening component and through the ventilation grooves of the inner wall of the drink container during the filling process and drinking process. - ventilation grooves formed only on the inner wall of the drink container - and as ventilation grooves of the fastening component , on the underside of the fastening component ,
A vehicle trailer system for loading, transporting and unloading a load, the vehicle trailer system comprising: a trailer, arranged along a front-to-back, longitudinal direction, the trailer comprising: a wheeled trailer structure for attachment to a towing vehicle; a carriage mounted for bidirectional travel on the trailer structure along the longitudinal direction; a carriage hitch carried by the carriage , the carriage hitch being configured for coupling to a load; a movable arm carried by the trailer structure; an arm actuator carried by the trailer structure and operably engaging the movable arm to selectively position the movable arm in a lowered position in which the carriage can travel over the movable arm , and in a plurality of raised positions in which the movable arm extends above the carriage ; and a flexible, windable elongated element supported by the arm actuator in at least one of the raised positions, the flexible, windable elongated element comprising a fastener for coupling to and pulling the load. a wheeled trailer structure for attachment to a towing vehicle; a carriage mounted for bidirectional travel on the trailer structure along the longitudinal direction; a carriage hitch carried by the carriage , the carriage hitch being configured for coupling to a load; a movable arm carried by the trailer structure; an arm actuator carried by the trailer structure and operably engaging the movable arm to selectively position the movable arm in a lowered position in which the carriage can travel over the movable arm , and in a plurality of raised positions in which the movable arm extends above the carriage ; and a flexible, windable elongated element supported by the arm actuator in at least one of the raised positions, the flexible, windable elongated element comprising a fastener for coupling to and pulling the load.
A prosthetic valve comprising: a frame ; a leaflet structure having at least one leaflet forming a primary valve mounted inside the frame ; at least one secondary valve element connected to at least one leaflet of the leaflet structure , wherein the at least one secondary valve element has a stationary portion and a detached portion ; and at least one aperture in the at least one leaflet and proximate to the secondary valve element ; wherein when the leaflet structure closes, the secondary valve element closes and covers the aperture ; wherein when the leaflet structure opens, the secondary valve element moves to create a secondary flow path (G) through the aperture . a frame ; a leaflet structure having at least one leaflet forming a primary valve mounted inside the frame ; at least one secondary valve element connected to at least one leaflet of the leaflet structure , wherein the at least one secondary valve element has a stationary portion and a detached portion ; and at least one aperture in the at least one leaflet and proximate to the secondary valve element ; wherein when the leaflet structure closes, the secondary valve element closes and covers the aperture ; wherein when the leaflet structure opens, the secondary valve element moves to create a secondary flow path (G) through the aperture .
An isolated, fully human antibody of an IgG class that binds to a CD38 epitope, wherein said antibody has a heavy chain/light chain variable domain sequence of SEQ ID NO. 3/SEQ ID NO. 4.
A method for performing, by a first apparatus, wireless communication, the method comprising: receiving (S1210) a configured grant, CG, from a base station; obtaining (S1220) a first hybrid automatic repeat request, HARQ, process identifier, ID, related to a first period according to the CG; transmitting (S1230) a first physical sidelink shared channel, PSSCH, to a second apparatus, based on a first resource included in the first period; obtaining (S1240) a second HARQ process ID related to a second period according to the CG, wherein the second HARQ process ID related to the second period is the same as the first HARQ process ID; and transmitting (S1250) a second PSSCH to the second apparatus, based on a second resource included in the second period, wherein a second new data indicator, NDI, related to the second PSSCH is a value to which a first NDI related to the first PSSCH is toggled, characterized in that the second NDI is set to the toggled value, based on the second HARQ process ID being the same as the first HARQ process ID when a CG period is changed. receiving (S1210) a configured grant, CG, from a base station; obtaining (S1220) a first hybrid automatic repeat request, HARQ, process identifier, ID, related to a first period according to the CG; transmitting (S1230) a first physical sidelink shared channel, PSSCH, to a second apparatus, based on a first resource included in the first period; obtaining (S1240) a second HARQ process ID related to a second period according to the CG, wherein the second HARQ process ID related to the second period is the same as the first HARQ process ID; and transmitting (S1250) a second PSSCH to the second apparatus, based on a second resource included in the second period, wherein a second new data indicator, NDI, related to the second PSSCH is a value to which a first NDI related to the first PSSCH is toggled, characterized in that the second NDI is set to the toggled value, based on the second HARQ process ID being the same as the first HARQ process ID when a CG period is changed.