mhurhangee/ep-ind-claims huggingface dataset:
A cut resistant fabric comprising: an Ultra-High Molecular Weight Polyethylene (UHMWPE) material; and a sheet shaped wollastonite filler, the sheet shaped wollastonite filler being treated with a silane coupling agent and mixed with the UHMWPE material, wherein a thickness of the sheet shaped wollastonite filler is less than 10 micrometers (μm). an Ultra-High Molecular Weight Polyethylene (UHMWPE) material; and a sheet shaped wollastonite filler, the sheet shaped wollastonite filler being treated with a silane coupling agent and mixed with the UHMWPE material, wherein a thickness of the sheet shaped wollastonite filler is less than 10 micrometers (μm).
A heart valve assembly system for implantation at an interventional site, comprising: an anchor, the anchor including a structure configured for residing above and below a valve annulus and an interior; and a valve assembly (340, 350, 360, 370, 380, 390, 400, 410, 420, 440) defining structure configured to be implanted separately from the anchor and having an exterior sized and shaped to lockingly and directly engage the interior of the anchor; characterized in that the anchor further includes commissural projections configured to engage tissue adjacent the trigones (60, 108). an anchor, the anchor including a structure configured for residing above and below a valve annulus and an interior; and a valve assembly (340, 350, 360, 370, 380, 390, 400, 410, 420, 440) defining structure configured to be implanted separately from the anchor and having an exterior sized and shaped to lockingly and directly engage the interior of the anchor; characterized in that the anchor further includes commissural projections configured to engage tissue adjacent the trigones (60, 108).
A method for creating a high resolution image of the surface of a well bore, the method comprising: placing a distal end of a fiber optic cable into a well bore while a proximal end of the fiber optic cable remains out of the well bore, wherein the fiber optic cable is configured with a head assembly affixed to the distal end thereof, the head assembly including at least a swept source laser scanner; wherein the head assembly includes one or more fluid-emitting nozzles that dilute or displace the existing contents of the well bore in order to improve the efficacy of the swept source laser scanner; removing the fiber optic cable from the well bore while the head assembly rotates in a circular direction; scanning the surface of the well bore with the swept source laser scanner during the removal; and using the information received from the swept source laser scanner to create a high resolution image of the surface of the well bore; characterised by that optical coherence tomography is used to create the high resolution image of the surface of the well bore from the information received from the swept source laser scanner. placing a distal end of a fiber optic cable into a well bore while a proximal end of the fiber optic cable remains out of the well bore, wherein the fiber optic cable is configured with a head assembly affixed to the distal end thereof, the head assembly including at least a swept source laser scanner; wherein the head assembly includes one or more fluid-emitting nozzles that dilute or displace the existing contents of the well bore in order to improve the efficacy of the swept source laser scanner; removing the fiber optic cable from the well bore while the head assembly rotates in a circular direction; scanning the surface of the well bore with the swept source laser scanner during the removal; and using the information received from the swept source laser scanner to create a high resolution image of the surface of the well bore; characterised by that optical coherence tomography is used to create the high resolution image of the surface of the well bore from the information received from the swept source laser scanner.
A lockable temperature controlled storage apparatus, comprising: a) a group of compartments (24, 28, 30); b) at least one common distribution system comprising a heat transfer fluid that is arranged to be in cooperation with a refrigeration system having a defined maximum refrigeration capacity, said at least one common distribution system comprising at least one valve for distributing the heat transfer fluid at a supplied pressure to exchange heat with the group of compartments (24, 28, 30); c) a controller for controlling actuation of the at least one valve; and characterised in that the controller is configured to assign a cooling sequence to a sub-group of the compartments (24, 28, 30) whereby the heat transfer fluid is periodically switched to each of the compartments (24, 28, 30) in the sub-group by actuating the at least one valve to vary the quantity of heat transfer fluid to each of the compartments (24, 28, 30) in the sub-group; said sub-group of compartments (24, 28, 30) comprises two or more compartments (24, 28, 30) allocated from the group of compartments (24, 28, 30). a) a group of compartments (24, 28, 30); b) at least one common distribution system comprising a heat transfer fluid that is arranged to be in cooperation with a refrigeration system having a defined maximum refrigeration capacity, said at least one common distribution system comprising at least one valve for distributing the heat transfer fluid at a supplied pressure to exchange heat with the group of compartments (24, 28, 30); c) a controller for controlling actuation of the at least one valve; and
Brake disc for vehicles, comprising: - a first track, which comprises at least a first friction surface (6.1), - a cup, as part of the disc attached to a hub of a vehicle, and - a set of through holes distributed along the first track, each through hole comprising: • a first diameter (Ø M) arranged in, at least, the first friction surface (6.1), and • a second diameter (Ø m) arranged in an opposite surface of, at least, the first track, this second diameter (Ø m) being smaller than the first diameter (Ø M), characterized in that: - a first center and a second center (m) of the first diameter (Ø M) and the second diameter (Ø m), respectively, are offset from each other with respect to a perpendicular of, at least, the first friction surface (6.1), the projection of the second diameter (Ø m) being contained within the projection of the first diameter (Ø M), and - section of maximum inclination in the connecting part between the first diameter (Ø M) and the second diameter (Ø m) of the through holes, there is a tilt angle (α) with respect to the perpendicular of the first friction surface (6.1) of between 1° and 6°. - a first track, which comprises at least a first friction surface (6.1), - a cup, as part of the disc attached to a hub of a vehicle, and - a set of through holes distributed along the first track, each through hole comprising: • a first diameter (Ø M) arranged in, at least, the first friction surface (6.1), and • a second diameter (Ø m) arranged in an opposite surface of, at least, the first track, this second diameter (Ø m) being smaller than the first diameter (Ø M), • a first diameter (Ø M) arranged in, at least, the first friction surface (6.1), and • a second diameter (Ø m) arranged in an opposite surface of, at least, the first track, this second diameter (Ø m) being smaller than the first diameter (Ø M), - a first center and a second center (m) of the first diameter (Ø M) and the second diameter (Ø m), respectively, are offset from each other with respect to a perpendicular of, at least, the first friction surface (6.1), the projection of the second diameter (Ø m) being contained within the projection of the first diameter (Ø M), and - section of maximum inclination in the connecting part between the first diameter (Ø M) and the second diameter (Ø m) of the through holes, there is a tilt angle (α) with respect to the perpendicular of the first friction surface (6.1) of between 1° and 6°.
An audio processing device (100; 700) comprising: a processor (106; 710) configured to: receive a spatialized audio signal, the spatialized audio signal including a multi-channel representation of a three-dimensional, 3D, sound field; receive, from one or more sensors, position data which indicates at least one of a translational position and an orientation, each associated with a user at a first time; determine predicted position data based on the position data, wherein the predicted position data indicates at least one of a predicted translational position and a predicted orientation, each associated with the user at a second time that is subsequent to the first time, wherein the difference between the first time and the second time is equal to the estimated latency associated with processing the spatialized audio signal; compare available processing resources to one or more thresholds and, based on the comparison, either process the spatialized audio signal based on the predicted position data or retrieve a pre-processed audio signal based on the predicted position data, wherein the processing comprises applying a rotation to adjust the orientation of the 3D sound field based on the predicted orientation such that the processed spatialized audio signal is perceived to be in synch with user movement; and output the processed spatialized audio signal. a processor (106; 710) configured to: receive a spatialized audio signal, the spatialized audio signal including a multi-channel representation of a three-dimensional, 3D, sound field; receive, from one or more sensors, position data which indicates at least one of a translational position and an orientation, each associated with a user at a first time; receive a spatialized audio signal, the spatialized audio signal including a multi-channel representation of a three-dimensional, 3D, sound field; receive, from one or more sensors, position data which indicates at least one of a translational position and an orientation, each associated with a user at a first time; determine predicted position data based on the position data, wherein the predicted position data indicates at least one of a predicted translational position and a predicted orientation, each associated with the user at a second time that is subsequent to the first time, wherein the difference between the first time and the second time is equal to the estimated latency associated with processing the spatialized audio signal; compare available processing resources to one or more thresholds and, based on the comparison, either process the spatialized audio signal based on the predicted position data or retrieve a pre-processed audio signal based on the predicted position data, wherein the processing comprises applying a rotation to adjust the orientation of the 3D sound field based on the predicted orientation such that the processed spatialized audio signal is perceived to be in synch with user movement; and output the processed spatialized audio signal.
A control unit of an electric power steering apparatus that assists and controls a steering system by driving a motor based on a current command value, characterized in that said control unit comprises: a configuration of a model following control setting a viscoelastic model for a rack displacement as a reference model; and said control unit performs a feedback control that inputs a shaft force which is obtained by adding a steering shaft force obtained by converting a steering torque and an assist shaft force obtained based on said current command value and said rack displacement, and generates a virtual reaction force, by said configuration of said model following control. a configuration of a model following control setting a viscoelastic model for a rack displacement as a reference model; and said control unit performs a feedback control that inputs a shaft force which is obtained by adding a steering shaft force obtained by converting a steering torque and an assist shaft force obtained based on said current command value and said rack displacement, and generates a virtual reaction force, by said configuration of said model following control.
A method of radio technology and channel selection for transferring device traffic comprising: detecting, at a wireless user equipment, UE, device, a condition related to radio interference at the wireless UE device; responsive to the detecting, sending a message from the wireless UE device to a network node, the message including information regarding the detected condition, wherein the message also includes information that indicates a preferred radio access technology (210, 212, 214); responsive to the sending, receiving, at the wireless UE device, a management object comprising at least one traffic routing rule, the at least one traffic routing rule being based on information in the message sent from the wireless UE device to the network node; and transferring device traffic from a data application (202, 204, 206) on the wireless UE device to a second radio access technology (210, 212, 214) based on the at least one traffic routing rule, wherein the second radio access technology is different than a first radio access technology providing connectivity to the wireless UE device when detecting the condition. detecting, at a wireless user equipment, UE, device, a condition related to radio interference at the wireless UE device; responsive to the detecting, sending a message from the wireless UE device to a network node, the message including information regarding the detected condition, wherein the message also includes information that indicates a preferred radio access technology (210, 212, 214); responsive to the sending, receiving, at the wireless UE device, a management object comprising at least one traffic routing rule, the at least one traffic routing rule being based on information in the message sent from the wireless UE device to the network node; and transferring device traffic from a data application (202, 204, 206) on the wireless UE device to a second radio access technology (210, 212, 214) based on the at least one traffic routing rule, wherein the second radio access technology is different than a first radio access technology providing connectivity to the wireless UE device when detecting the condition.
A method operational in a processing circuit, comprising: setting a state indicator for a first subset of a plurality of memory pages of executable code in a memory device to a non-executable state; setting the state indicator for a second subset of the plurality of memory pages to an executable state, where the second subset of the plurality of memory pages includes indirection stubs to functions in the first subset of the plurality of memory pages; and directing a function call for one of the functions in the first subset of the plurality of memory pages to a corresponding indirection stub in the second subset of the plurality of memory pages, wherein the corresponding indirection stub modifies the state indicator for the first subset of the plurality of memory pages prior to directing execution of the called function from the first subset of the plurality of memory pages. setting a state indicator for a first subset of a plurality of memory pages of executable code in a memory device to a non-executable state; setting the state indicator for a second subset of the plurality of memory pages to an executable state, where the second subset of the plurality of memory pages includes indirection stubs to functions in the first subset of the plurality of memory pages; and directing a function call for one of the functions in the first subset of the plurality of memory pages to a corresponding indirection stub in the second subset of the plurality of memory pages, wherein the corresponding indirection stub modifies the state indicator for the first subset of the plurality of memory pages prior to directing execution of the called function from the first subset of the plurality of memory pages.
A bogie of a railway vehicle having disposed on a bogie frame including two side beams spaced apart in parallel and transoms passing through longitudinal centre portions of the side beams, a wheel set having wheels disposed on both ends of an axle, brake gears for generating brake force of the wheels, air springs supporting a weight of the vehicle body, and air spring bearing racks arranged on the transoms having air springs attached to a longitudinal centre portion thereof; characterized in that the air spring bearing racks have brake gear attachments for attaching the brake gears provided integrally to both ends thereof.
A modified polytetrafluoroethylene fine powder which is a fine powder of a non-melt-moldable modified polytetrafluoroethylene, wherein the modified polytetrafluoroethylene comprises units derived from tetrafluoroethylene, units derived from a perfluoroalkyl vinyl ether represented by the formula and units derived from a perfluoroalkylethylene represented by the formula, characterized in that the content of the units derived from the perfluoroalkyl vinyl ether is from 0.1 to 0.15 mass% and the content of the units derived from a perfluoroalkylethylene is from 0.002 to 0.015 mass%, based on all monomer units in the modified polytetrafluoroethylene: CF 2 =CFO-C n F 2n+1 wherein n is an integer of from 1 to 6, CH 2 =CH-C m F 2m+1 wherein m is an integer of from 3 to 6.
A system for engaging a series of article protection features of a carton to stabilize a series of articles within the carton, comprising: a conveyor system (17, 56, 140) moving the carton with the series of articles contained therewithin along a path of travel (33, 71); and an actuating assembly (15, 51, 75, 90, 200) positioned along the path of travel (53, 71) of the carton, the actuating assembly (15, 51, 75, 90, 200) comprising: a series of actuating elements (45, 60, 78, 94, 202) located along the path of travel (53, 71) of the carton and movable from a first position to a second position in engagement with the article protection features of the carton, wherein the actuating elements (45, 60, 78, 94, 202) engage the article protection features of the carton as the carton with the series of articles contained therein moves thereby, and wherein different ones of the actuating elements (45, 60, 78, 94, 202) can engage different ones of the article protection features of the carton at substantially the same time or at selected intervals, to cause the article protection features to be projected into the carton. a conveyor system (17, 56, 140) moving the carton with the series of articles contained therewithin along a path of travel (33, 71); and an actuating assembly (15, 51, 75, 90, 200) positioned along the path of travel (53, 71) of the carton, the actuating assembly (15, 51, 75, 90, 200) comprising: a series of actuating elements (45, 60, 78, 94, 202) located along the path of travel (53, 71) of the carton and movable from a first position to a second position in engagement with the article protection features of the carton, wherein the actuating elements (45, 60, 78, 94, 202) engage the article protection features of the carton as the carton with the series of articles contained therein moves thereby, and wherein different ones of the actuating elements (45, 60, 78, 94, 202) can engage different ones of the article protection features of the carton at substantially the same time or at selected intervals, to cause the article protection features to be projected into the carton. a series of actuating elements (45, 60, 78, 94, 202) located along the path of travel (53, 71) of the carton and movable from a first position to a second position in engagement with the article protection features of the carton, wherein the actuating elements (45, 60, 78, 94, 202) engage the article protection features of the carton as the carton with the series of articles contained therein moves thereby, and wherein different ones of the actuating elements (45, 60, 78, 94, 202) can engage different ones of the article protection features of the carton at substantially the same time or at selected intervals, to cause the article protection features to be projected into the carton.
An assembly comprising: a robotic arm having a gripper unit configured to grip a sample container, wherein the robotic arm is configured to move in three dimensions; an image acquisition device physically coupled to the robotic arm and configured to acquire an image of the sample container, wherein the image acquisition device comprises a camera and a liquid level detection device comprising an absorption and transmission measurement unit having an optical emitter and an optical detector; and an image analysis device in communication with the image acquisition device, wherein the image analysis device is configured to analyze the image of the sample container to determine identifying information associated with the sample container and to determine a liquid level of a sample in the sample container utilizing an analysis of absorption and transmission curves at distinct wavelengths performed by the absorption and transmission measurement unit, wherein the sample container is positioned between the optical emitter and the optical detector by the gripper unit when the liquid level of the sample in the sample container is determined by the image analysis device. a robotic arm having a gripper unit configured to grip a sample container, wherein the robotic arm is configured to move in three dimensions; an image acquisition device physically coupled to the robotic arm and configured to acquire an image of the sample container, wherein the image acquisition device comprises a camera and a liquid level detection device comprising an absorption and transmission measurement unit having an optical emitter and an optical detector; and an image analysis device in communication with the image acquisition device, wherein the image analysis device is configured to analyze the image of the sample container to determine identifying information associated with the sample container and to determine a liquid level of a sample in the sample container utilizing an analysis of absorption and transmission curves at distinct wavelengths performed by the absorption and transmission measurement unit, wherein the sample container is positioned between the optical emitter and the optical detector by the gripper unit when the liquid level of the sample in the sample container is determined by the image analysis device.
A process for repairing a coating film comprising: applying an adhesion primer directly to a substrate; forming a polymer film from the applied adhesion primer to obtain an adhesion-promoting layer; applying a further layer of coating composition to the adhesion-promoting layer; and subsequently allowing the further layer of coating composition to cure to form a further coating layer, wherein the substrate is a substrate body with an original coating that has defects, wherein the adhesion primer comprises components and, wherein component is a binder component comprising: a hydroxy-functional (meth)acrylate resin; and a hydroxy-functional epoxy resin, and component is a curing component comprising: a polyisocyanate; and an epoxy-functional organosilane. applying an adhesion primer directly to a substrate; forming a polymer film from the applied adhesion primer to obtain an adhesion-promoting layer; applying a further layer of coating composition to the adhesion-promoting layer; and subsequently allowing the further layer of coating composition to cure to form a further coating layer, wherein the substrate is a substrate body with an original coating that has defects, wherein the adhesion primer comprises components and, wherein component is a binder component comprising: a hydroxy-functional (meth)acrylate resin; and a hydroxy-functional epoxy resin, and component is a curing component comprising: a polyisocyanate; and an epoxy-functional organosilane. a hydroxy-functional (meth)acrylate resin; and a hydroxy-functional epoxy resin, a polyisocyanate; and an epoxy-functional organosilane.