mhurhangee/patent-ind-claim-en huggingface dataset:
A transvalvular intraannular band , the transvalvular band comprising: an elongate and arcuate body having a first end , a first anchoring portion located proximate the first end , a second end , a second anchoring portion located proximate the second end , and a central portion , the central portion displaced transversely from a plane which includes the first end and the second end , wherein the first end and the second end are configured to be attached to the mitral valve annulus within the plane of the annulus and the central portion is configured to support the mitral valve leaflets at a point displaced toward the ventricle from the plane; wherein the anchoring portions and are configured to secure the transvalvular band to the annulus, and the central portion is displaced transversely from the plane by having a curved structure, wherein the central portion is narrower in width, measured perpendicular to a blood flow direction, than both the first anchoring portion and the second anchoring portion , wherein the narrowed central portion is separated from the first anchoring portion by a first shoulder and from the second anchoring portion by a second shoulder , characterised in that the length of the central portion between the first shoulder and the second shoulder is less than about 50% of the overall length of the transvalvular intraannular band . an elongate and arcuate body having a first end , a first anchoring portion located proximate the first end , a second end , a second anchoring portion located proximate the second end , and a central portion , the central portion displaced transversely from a plane which includes the first end and the second end , wherein the first end and the second end are configured to be attached to the mitral valve annulus within the plane of the annulus and the central portion is configured to support the mitral valve leaflets at a point displaced toward the ventricle from the plane; wherein the anchoring portions and are configured to secure the transvalvular band to the annulus, and the central portion is displaced transversely from the plane by having a curved structure, wherein the central portion is narrower in width, measured perpendicular to a blood flow direction, than both the first anchoring portion and the second anchoring portion , wherein the narrowed central portion is separated from the first anchoring portion by a first shoulder and from the second anchoring portion by a second shoulder , characterised in that the length of the central portion between the first shoulder and the second shoulder is less than about 50% of the overall length of the transvalvular intraannular band .
Deflection device for deflecting a melt flow in a bottom pouring assembly during ingot casting, the deflection device comprising a basic body , the basic body comprising a flow chamber , an inlet to the flow chamber and at least one outlet from the flow chamber , wherein the flow chamber has a base surface (3.2), an inlet opening situated opposite the base surface (3.2), and at least one outlet opening , wherein the inlet opening is delimited by a circumferential edge and is connected in terms of flow to the inlet via an inlet channel , and the at least one outlet opening is connected in terms of flow to the at least one outlet via an outlet channel , the basic body further comprising an impact chamber , which is connected in terms of flow to the flow chamber via an access opening , wherein the access opening faces the inlet opening and has an opening area , which is arranged transversely to a centre axis of the inlet channel in the region of the inlet opening , characterized in that at least one portion of the edge of the inlet opening lies within the access opening .
A composition comprising at least the following: A) a continuous phase comprising an elastomer, wherein the elastomer is an ethylene/propylene/diene terpolymer; B) a discontinuous phase comprising a crosslinked elastomer dispersed within the continuous phase, wherein the crosslinked elastomer is an ethylene/propylene/diene terpolymer; and C) a thermally conductive filler comprising a plurality of particles dispersed within the continuous phase, the filler selected from the group consisting of graphite, aluminum, aluminum oxide, magnesium oxide, boron nitride, zinc oxide, silicon carbide, aluminum nitride, carbon fiber, silicon nitride, graphene nanoplatelets, zinc sulfide, and combinations thereof. A) a continuous phase comprising an elastomer, wherein the elastomer is an ethylene/propylene/diene terpolymer; B) a discontinuous phase comprising a crosslinked elastomer dispersed within the continuous phase, wherein the crosslinked elastomer is an ethylene/propylene/diene terpolymer; and C) a thermally conductive filler comprising a plurality of particles dispersed within the continuous phase, the filler selected from the group consisting of graphite, aluminum, aluminum oxide, magnesium oxide, boron nitride, zinc oxide, silicon carbide, aluminum nitride, carbon fiber, silicon nitride, graphene nanoplatelets, zinc sulfide, and combinations thereof.
A method for wireless communication performed by an access and mobility management function, AMF, associated with a Next Generation, NG, radio access network, RAN, comprising: identifying a user equipment, UE, (115-b) connected to a source base station (105-b) of the NG RAN; receiving , from the UE (115-b), a handover message comprising a voice call continuity handover trigger message indicating a handover of the UE to a target base station associated with a 2G/3G RAN; selecting a mobility management entity, MME , associated with a 4G RAN, transmitting a bypass handover message to the MME based at least in part on the received handover message, the bypass handover message comprising the voice call continuity handover trigger message; receiving a handover response message from the MME , the handover response message indicating completion of the handover of the UE from the source base station (105-b) to the target base station; and transmitting the handover response message to the source base station (105-b). identifying a user equipment, UE, (115-b) connected to a source base station (105-b) of the NG RAN; receiving , from the UE (115-b), a handover message comprising a voice call continuity handover trigger message indicating a handover of the UE to a target base station associated with a 2G/3G RAN; selecting a mobility management entity, MME , associated with a 4G RAN, transmitting a bypass handover message to the MME based at least in part on the received handover message, the bypass handover message comprising the voice call continuity handover trigger message; receiving a handover response message from the MME , the handover response message indicating completion of the handover of the UE from the source base station (105-b) to the target base station; and transmitting the handover response message to the source base station (105-b).
A respiratory airflow monitoring device , comprising: a body comprising two halves configured to couple together; a pair of first arms extending distally outwards from the body wherein one of the first arms extends distally from a first half of the body and the other of the first arms extends distally from a second half of the body; and a first thermistor mounted to the body or at least one of the pair of first arms; wherein at least one of the first arms is moveable with respect to the other by a distance sufficient to position a human nasal septum therebetween; and wherein at least one of the first arms is biased towards the other such that, when a human nasal septum is received between the pair of first arms, the pair of first arms applies a compressive force to the nasal septum sufficient to retain the pair of first arms substantially in place; and a computing device in communication with said first thermistor, and configured to determine an airflow velocity, based upon temperature measurements of the airflow acquired by the at least one thermistor; and wherein the velocity of airflow is determined empirically according to one of : v = 1 b − C T T ̇ T − T A − a c where a b, and c are constants associated with the thermistor and obtained from King's law equation and C T is the heat capacity of the thermistor or G v = T ̇ T A − T where G ( v ) is obtained experimentally, where T is the measured temperature of the thermistor; T A is the temperature of the inspired airflow; and T is the rate of change of temperature of the thermistor. a body comprising two halves configured to couple together; a pair of first arms extending distally outwards from the body wherein one of the first arms extends distally from a first half of the body and the other of the first arms extends distally from a second half of the body; and a first thermistor mounted to the body or at least one of the pair of first arms; wherein at least one of the first arms is moveable with respect to the other by a distance sufficient to position a human nasal septum therebetween; and wherein at least one of the first arms is biased towards the other such that, when a human nasal septum is received between the pair of first arms, the pair of first arms applies a compressive force to the nasal septum sufficient to retain the pair of first arms substantially in place; and a computing device in communication with said first thermistor, and configured to determine an airflow velocity, based upon temperature measurements of the airflow acquired by the at least one thermistor; and wherein the velocity of airflow is determined empirically according to one of : v = 1 b − C T T ̇ T − T A − a c where a b, and c are constants associated with the thermistor and obtained from King's law equation and C T is the heat capacity of the thermistor or G v = T ̇ T A − T where G ( v ) is obtained experimentally, where T is the measured temperature of the thermistor; T A is the temperature of the inspired airflow; and T is the rate of change of temperature of the thermistor.
A photovoltaic apparatus , comprising: a first photovoltaic module and a second photovoltaic module , each photovoltaic module comprising: a front sheet having an outer portion and an inner portion , wherein the outer portion is disposed around a core to form a keder ; a back sheet ; and a photovoltaic device disposed between the front sheet and the back sheet , each photovoltaic device comprising an array of photovoltaic cells , characterized in that the front sheet of the first photovoltaic module comprises one or more humps that are configured to relieve stresses generated in the first photovoltaic module when an external load is applied to the front sheet of the first or the second photovoltaic modules. a first photovoltaic module and a second photovoltaic module , each photovoltaic module comprising: a front sheet having an outer portion and an inner portion , wherein the outer portion is disposed around a core to form a keder ; a back sheet ; and a photovoltaic device disposed between the front sheet and the back sheet , each photovoltaic device comprising an array of photovoltaic cells , a front sheet having an outer portion and an inner portion , wherein the outer portion is disposed around a core to form a keder ; a back sheet ; and a photovoltaic device disposed between the front sheet and the back sheet , each photovoltaic device comprising an array of photovoltaic cells , characterized in that the front sheet of the first photovoltaic module comprises one or more humps that are configured to relieve stresses generated in the first photovoltaic module when an external load is applied to the front sheet of the first or the second photovoltaic modules.
A swingarm fixing hanger connecting a swingarm of an electric vehicle with a fixed shaft (S) of a wheel thereof to be fixed to each other, the fixing hanger comprising: a fixing bracket , being in close contact with the swingarm to be coupled thereto, with a fixed shaft (S)of a rear wheel of the electric vehicle being inserted into the fixing bracket to be fastened thereto, and a support cover coupled detachably to a side of the fixing bracket so as to press the fixed shaft (S), wherein the fixing bracket , and the support cover press and fasten the fixed shaft (S) in directions opposing to each other, characterized in that it additionally comprises: fastening screws inserted into the fixing bracket , in directions opposing to each other to press the fixed shaft (S) in the opposing directions, which is inserted into the fixing bracket , , and through holes formed through the fixing bracket , in the opposing directions, the fastening screws , being inserted into the through holes, wherein a direction in which each of the fastening screws presses the fixed shaft (S) is orthogonal to a direction in which each of an insertion groove and the support cover presses the fixed shaft (S) such that the fixing bracket , and the support cover press the fixed shaft (S) in four directions perpendicular to each other. a fixing bracket , being in close contact with the swingarm to be coupled thereto, with a fixed shaft (S)of a rear wheel of the electric vehicle being inserted into the fixing bracket to be fastened thereto, and a support cover coupled detachably to a side of the fixing bracket so as to press the fixed shaft (S), wherein the fixing bracket , and the support cover press and fasten the fixed shaft (S) in directions opposing to each other, characterized in that it additionally comprises: fastening screws inserted into the fixing bracket , in directions opposing to each other to press the fixed shaft (S) in the opposing directions, which is inserted into the fixing bracket , , and through holes formed through the fixing bracket , in the opposing directions, the fastening screws , being inserted into the through holes, wherein a direction in which each of the fastening screws presses the fixed shaft (S) is orthogonal to a direction in which each of an insertion groove and the support cover presses the fixed shaft (S) such that the fixing bracket , and the support cover press the fixed shaft (S) in four directions perpendicular to each other. fastening screws inserted into the fixing bracket , in directions opposing to each other to press the fixed shaft (S) in the opposing directions, which is inserted into the fixing bracket , , and through holes formed through the fixing bracket , in the opposing directions, the fastening screws , being inserted into the through holes, wherein a direction in which each of the fastening screws presses the fixed shaft (S) is orthogonal to a direction in which each of an insertion groove and the support cover presses the fixed shaft (S) such that the fixing bracket , and the support cover press the fixed shaft (S) in four directions perpendicular to each other.
A tub for a humidifier comprising: a container made of a first material, a heating element , and a lining comprising a second material different from the first material, wherein the second material is biocompatible and elastic; wherein the container comprises a base and a side wall defining a reservoir for a supply of liquid to be evaporated, the heating element is provided on an inner surface of the container, and the lining covers at least the heating element and the entire inner surface of the side wall of the container; wherein the tub further comprises a lid , wherein the lining provides a sealing for the lid. a container made of a first material, a heating element , and a lining comprising a second material different from the first material, wherein the second material is biocompatible and elastic; wherein the container comprises a base and a side wall defining a reservoir for a supply of liquid to be evaporated, the heating element is provided on an inner surface of the container, and the lining covers at least the heating element and the entire inner surface of the side wall of the container; wherein the tub further comprises a lid , wherein the lining provides a sealing for the lid.
An introducer catheter device comprising: a handle; and an elongate shaft coupled to the handle and extending therefrom, the shaft defining a lumen therethrough and a longitudinal axis, the shaft defining a first aperture in connection with the lumen, and further comprising a movable deployment element configured for deploying an ancillary device from the first aperture at an angle relative to the longitudinal axis; and characterized in that the elongate shaft of the introducer catheter device comprises a weeping balloon encapsulating a shaft portion comprising a digital camera. a handle; and an elongate shaft coupled to the handle and extending therefrom, the shaft defining a lumen therethrough and a longitudinal axis, the shaft defining a first aperture in connection with the lumen, and further comprising a movable deployment element configured for deploying an ancillary device from the first aperture at an angle relative to the longitudinal axis; and characterized in that the elongate shaft of the introducer catheter device comprises a weeping balloon encapsulating a shaft portion comprising a digital camera.
A dental tray assembly for intraoral imaging of an edentulous dental arch and palate; the dental tray assembly comprising: (i) a base surface for facing, in use, a dental arch within an oral cavity; (ii) an opposing external surface; (iii) an anterior wall connected to said base surface and extending arcuately either side of a central axis coinciding, in use, with the labial frenulum; wherein the base surface and the anterior wall together define a concave trough for at least partially surrounding, in use, a dental arch within the oral cavity; (iv) a posterior edge connecting opposing sides of the anterior trough wall and extending, in use, substantially perpendicular to the central axis; and (v) a gel-filled sac removably located within the arcuate trough to provide a deformable interface between the dental tray and a patient's edentulous arches and/ or palate; wherein a spaced-apart array of ultrasound imaging elements is attached to the dental tray within the trough for emitting and receiving ultrasound signals, the received ultrasound signals being representative of the surface topography and/or sub-surface structures of an edentulous dental arch and palate to be imaged. (i) a base surface for facing, in use, a dental arch within an oral cavity; (ii) an opposing external surface; (iii) an anterior wall connected to said base surface and extending arcuately either side of a central axis coinciding, in use, with the labial frenulum; wherein the base surface and the anterior wall together define a concave trough for at least partially surrounding, in use, a dental arch within the oral cavity; (iv) a posterior edge connecting opposing sides of the anterior trough wall and extending, in use, substantially perpendicular to the central axis; and (v) a gel-filled sac removably located within the arcuate trough to provide a deformable interface between the dental tray and a patient's edentulous arches and/ or palate;
A computing device comprising: one or more processors ; and a computer readable medium storing instructions that, when executed by the one or more processors, cause the computing device to perform functions for aligning an aircraft with a centerline of a runway during takeoff, the functions comprising: accessing a first image captured by a first camera mounted on a first side of the aircraft; accessing a second image captured by a second camera mounted on a second side of the aircraft that is opposite the first side; determining a first angle between a first marked line on the runway in the first image and a first reference line in the first image; determining a second angle between a second marked line on the runway in the second image and a second reference line in the second image; and based on the first angle and the second angle, moving a control surface of the aircraft such that the aircraft moves closer to the centerline of the runway. one or more processors ; and a computer readable medium storing instructions that, when executed by the one or more processors, cause the computing device to perform functions for aligning an aircraft with a centerline of a runway during takeoff, the functions comprising: accessing a first image captured by a first camera mounted on a first side of the aircraft; accessing a second image captured by a second camera mounted on a second side of the aircraft that is opposite the first side; determining a first angle between a first marked line on the runway in the first image and a first reference line in the first image; determining a second angle between a second marked line on the runway in the second image and a second reference line in the second image; and based on the first angle and the second angle, moving a control surface of the aircraft such that the aircraft moves closer to the centerline of the runway. accessing a first image captured by a first camera mounted on a first side of the aircraft; accessing a second image captured by a second camera mounted on a second side of the aircraft that is opposite the first side; determining a first angle between a first marked line on the runway in the first image and a first reference line in the first image; determining a second angle between a second marked line on the runway in the second image and a second reference line in the second image; and based on the first angle and the second angle, moving a control surface of the aircraft such that the aircraft moves closer to the centerline of the runway.
An annular barrier to be expanded in an annulus between a well tubular structure and a wall of a borehole downhole for providing zone isolation between a first zone having a first pressure (P 1 ) and a second zone , the annular barrier comprising: - a tubular metal part for mounting as part of the well tubular structure, the tubular metal part having a first expansion opening , an axial extension (L) and an outer face , - an expandable sleeve surrounding the tubular metal part and having an inner face facing the tubular metal part and an outer face facing the wall of the borehole, each end , of the expandable sleeve being connected with the tubular metal part, and - an annular space between the inner face of the expandable sleeve and the tubular metal part, the annular space having a space pressure (P s ), wherein fluid inside the tubular metal part has a tubular pressure (P t ), and wherein the annular barrier comprises an expansion unit having a first inlet in fluid communication with the expansion opening , a second inlet in fluid communication with the first zone and an outlet in fluid communication with the annular space, characterised in that the expansion unit comprising an element movable at least between a first position and a second position, in the first position the expansion opening being in fluid communication with the outlet and the tubular pressure (P t ) being higher than the first pressure (P 1 ), and in the second position the outlet being in fluid communication with the first zone and the first pressure (P 1 ) being higher than the tubular pressure (P t ), wherein the tubular metal part comprises at least one second expansion opening being fluidly connected with the first inlet. - a tubular metal part for mounting as part of the well tubular structure, the tubular metal part having a first expansion opening , an axial extension (L) and an outer face , - an expandable sleeve surrounding the tubular metal part and having an inner face facing the tubular metal part and an outer face facing the wall of the borehole, each end , of the expandable sleeve being connected with the tubular metal part, and - an annular space between the inner face of the expandable sleeve and the tubular metal part, the annular space having a space pressure (P s ),