mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigeration appliance , comprising: a freezer compartment a refrigeration compartment ; an ice maker compartment positioned within the refrigeration compartment ; an ice maker return duct fluidly coupling the ice maker compartment and the freezer compartment ; a pressure sensor positioned within the freezer compartment and configured to detect a pressure differential between the freezer compartment and an external environment; and a fan positioned within the ice maker return duct and configured to be activated by a controller electrically coupled to the fan and the pressure sensor , when the pressure differential between the freezer compartment and the external environment is smaller than zero, the fan being configured to blow air from the ice maker compartment and/ or from the refrigeration compartment into the freezer compartment . a freezer compartment a refrigeration compartment ; an ice maker compartment positioned within the refrigeration compartment ; an ice maker return duct fluidly coupling the ice maker compartment and the freezer compartment ; a pressure sensor positioned within the freezer compartment and configured to detect a pressure differential between the freezer compartment and an external environment; and a fan positioned within the ice maker return duct and configured to be activated by a controller electrically coupled to the fan and the pressure sensor , when the pressure differential between the freezer compartment and the external environment is smaller than zero, the fan being configured to blow air from the ice maker compartment and/ or from the refrigeration compartment into the freezer compartment .
A patient interface device structured to engage a patient's sub-nasal area, the patient interface device comprising: a body including a sidewall , the patient interface device body sidewall defining a chamber; the patient interface device body sidewall including an upper side ; the patient interface device body sidewall upper side including a number of passages ; a cushion including a resilient body , the cushion body disposed on the patient interface device body ; the patient interface device cushion body including: an engagement portion structured to engage a patient's sub-nasal area, and, a pocket disposed under the cushion body engagement portion; the patient interface device cushion body engagement portion including a number of passages ; a custom cushion support assembly including a body ; the custom cushion support assembly body including an upper surface and defining a number of passages ; the custom cushion support assembly body upper surface including a custom contour ; the custom cushion support assembly body disposed in the patient interface device cushion body pocket with each custom cushion support assembly body passage aligned with a patient interface device cushion body engagement portion passage ; wherein the custom cushion support assembly body upper surface custom contour deforms the patient interface device cushion body engagement portion to correspond to the patient's sub-nasal area. a body including a sidewall , the patient interface device body sidewall defining a chamber; the patient interface device body sidewall including an upper side ; the patient interface device body sidewall upper side including a number of passages ; a cushion including a resilient body , the cushion body disposed on the patient interface device body ; the patient interface device cushion body including: an engagement portion structured to engage a patient's sub-nasal area, and, a pocket disposed under the cushion body engagement portion; the patient interface device cushion body engagement portion including a number of passages ; a custom cushion support assembly including a body ; the custom cushion support assembly body including an upper surface and defining a number of passages ; the custom cushion support assembly body upper surface including a custom contour ; the custom cushion support assembly body disposed in the patient interface device cushion body pocket with each custom cushion support assembly body passage aligned with a patient interface device cushion body engagement portion passage ; wherein the custom cushion support assembly body upper surface custom contour deforms the patient interface device cushion body engagement portion to correspond to the patient's sub-nasal area.
A spacer for a knee replacement prosthesis, comprising: a lower surface , the lower surface comprising a locking component adapted to interlock with a tibial tray; an upper surface , the upper surface comprising a pair of condyle support platforms, each of the condyle support platforms being disposed on opposite sides of the upper surface, each of the condyle support platforms being smooth, the surface of each of the condyle support platforms further having a shallow concavity; and a body, the body having a hollow outer portion surrounding an internal reservoir , the material of the body being impermeable to fluid; the body further having a port comprising a channel and a flow restrictor the channel extending through the hollow outer portion of the body, the flow restrictor restricting the flow of fluid in and out of the port in the absence of an external force, characterised in that the flow restrictor is formed of a flexible or fibrous material and is configured to permit the introduction of fluid through a patient's skin and into the port and the internal reservoir after the spacer is in place when an external force is applied. a lower surface , the lower surface comprising a locking component adapted to interlock with a tibial tray; an upper surface , the upper surface comprising a pair of condyle support platforms, each of the condyle support platforms being disposed on opposite sides of the upper surface, each of the condyle support platforms being smooth, the surface of each of the condyle support platforms further having a shallow concavity; and a body, the body having a hollow outer portion surrounding an internal reservoir , the material of the body being impermeable to fluid; the body further having a port comprising a channel and a flow restrictor the channel extending through the hollow outer portion of the body, the flow restrictor restricting the flow of fluid in and out of the port in the absence of an external force, characterised in that the flow restrictor is formed of a flexible or fibrous material and is configured to permit the introduction of fluid through a patient's skin and into the port and the internal reservoir after the spacer is in place when an external force is applied.
Method of heat treatment of a scrolling high-strength steel strip , said method comprising the following steps: a) heating the strip in a direct flame heating zone , the heating step being performed with an atmosphere having an oxygen volume concentration of less than 0.01% by volume, preferably with an oxygen-free atmosphere, b) temperature homogenisation of the strip in a homogenisation chamber comprising at least one radiant heating tube , so as to homogenise the strip in temperature after its passage in the direct flame heating zone in the previous step, the temperature homogenisation step being performed with an atmosphere having an oxygen volume concentration of less than 0.01% by volume, preferably with an oxygen-free atmosphere, c) oxidation of the strip in an oxidation chamber with an oxidising atmosphere having an oxygen volume concentration of greater than 1%, d) reduction of the strip in a reduction zone . a) heating the strip in a direct flame heating zone , the heating step being performed with an atmosphere having an oxygen volume concentration of less than 0.01% by volume, preferably with an oxygen-free atmosphere, b) temperature homogenisation of the strip in a homogenisation chamber comprising at least one radiant heating tube , so as to homogenise the strip in temperature after its passage in the direct flame heating zone in the previous step, the temperature homogenisation step being performed with an atmosphere having an oxygen volume concentration of less than 0.01% by volume, preferably with an oxygen-free atmosphere, c) oxidation of the strip in an oxidation chamber with an oxidising atmosphere having an oxygen volume concentration of greater than 1%, d) reduction of the strip in a reduction zone .
An antibody that specifically recognizes glypican-3, which comprises a heavy chain variable region and a light chain variable region, and its heavy chain variable region comprises: CDR1 of the amino acid sequence of SEQ ID NO: 73, CDR2 of the amino acid sequence of SEQ ID NO: 74 and CDR3 of the amino acid sequence of SEQ ID NO: 75; and its light chain variable region comprises CDR1 of the amino acid sequence of SEQ ID NO: 76, CDR2 of the amino acid sequence of SEQ ID NO: 77 and CDR3 of the amino acid sequence of SEQ ID NO: 78.
A device for supporting at least one arm of a user, wherein the device has a. at least one arm support element , each of which has an arm shell for placing on an arm , b. at least one passive actuator , i. which is configured to apply a force to at least one of the arm support elements , and c. at least one counter bearing for the force to be applied, i. which comprises at least one force transmission element and a counter bearing element , wherein the force transmission element is arranged rotatably and/or pivotably on the counter bearing element , and the force transmission element comprises at least a first component and a second component which are connected to one another by at least one joint , characterized by the fact that the joint is lockable. a. at least one arm support element , each of which has an arm shell for placing on an arm , b. at least one passive actuator , i. which is configured to apply a force to at least one of the arm support elements , and i. which is configured to apply a force to at least one of the arm support elements , and c. at least one counter bearing for the force to be applied, i. which comprises at least one force transmission element and a counter bearing element , i. which comprises at least one force transmission element and a counter bearing element , wherein the force transmission element is arranged rotatably and/or pivotably on the counter bearing element , and the force transmission element comprises at least a first component and a second component which are connected to one another by at least one joint , characterized by the fact that the joint is lockable.
A method for changing graphics processing resolution according to a scenario, comprising: determining a first display scenario as a scenario in which energy can be saved; reducing graphics processing resolution of a graphics processing unit; rendering , by the graphics processing unit, at least one target graphics frame in the first display scenario according to the reduced graphics processing resolution, to obtain at least one target image frame; adapting the at least one target image frame according to screen display resolution; and displaying the at least one target image frame adapted; wherein the determining a first display scenario as a scenario in which energy can be saved comprises: obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved. determining a first display scenario as a scenario in which energy can be saved; reducing graphics processing resolution of a graphics processing unit; rendering , by the graphics processing unit, at least one target graphics frame in the first display scenario according to the reduced graphics processing resolution, to obtain at least one target image frame; adapting the at least one target image frame according to screen display resolution; and displaying the at least one target image frame adapted; wherein the determining a first display scenario as a scenario in which energy can be saved comprises: obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved. obtaining a first graphics frame sequence in the first display scenario; calculating an eigenvalue of the first graphics frame sequence; and determining a display scenario type of the first graphics frame sequence according to the eigenvalue of the first graphics frame sequence, wherein the display scenario type comprises a rapidly changing scenario or a slowly changing scenario, and the rapidly changing scenario is a scenario in which energy can be saved.
A method for determining variations of a solenoid fluid control valve response within a temperature range, the method comprising: performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep ; characterised in that the method further comprises the steps of: assigning a first metric to the solenoid fluid control valve based on the first current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric . performing a current sweep that comprises running a current through a coil of the solenoid fluid control valve and measuring a control pressure as a function of the current, wherein the current sweep is performed at a first temperature; choosing a first characterization control pressure for characterizing the solenoid fluid control valve; determining a first current corresponding to the first characterization control pressure based on the current sweep ; characterised in that the method further comprises the steps of: assigning a first metric to the solenoid fluid control valve based on the first current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric . assigning a first metric to the solenoid fluid control valve based on the first current ; and determining information regarding a behavior of the solenoid fluid control valve at a second temperature based on the first metric .
A snow-making system comprising: a snow-producing assembly , which is configured as a fan machine or as a lance snow-producing machine, and which is adapted for receiving snow-making water (B, K), and which comprises one or more nozzles (20.x) for ejecting the snow-making water (B, K) and/or a mixture of air and the snow-making water (B, K), wherein the snow-producing assembly is configured in such a way that the one or more nozzles (20.x) are located, during operation of the snow-producing assembly , in non-compressed ambient air or, in the case of a fan machine, in an air stream produced by a fan, and a refrigerating machine having at least one cooling circuit containing a refrigerant (M) separated from the snow-making water (B, K), wherein the refrigerating machine is configured for cooling the snow-making water (B, K) before it is fed to the snow-producing assembly , characterized in that the snow-producing assembly is configured for receiving the snow-making water (B, K) with an operating pressure, wherein the snow-making water (B, K) is under at least half the operating pressure in a heat exchanger of the refrigerating machine during operation of the snow-making system . a snow-producing assembly , which is configured as a fan machine or as a lance snow-producing machine, and which is adapted for receiving snow-making water (B, K), and which comprises one or more nozzles (20.x) for ejecting the snow-making water (B, K) and/or a mixture of air and the snow-making water (B, K), wherein the snow-producing assembly is configured in such a way that the one or more nozzles (20.x) are located, during operation of the snow-producing assembly , in non-compressed ambient air or, in the case of a fan machine, in an air stream produced by a fan, and a refrigerating machine having at least one cooling circuit containing a refrigerant (M) separated from the snow-making water (B, K), wherein the refrigerating machine is configured for cooling the snow-making water (B, K) before it is fed to the snow-producing assembly , characterized in that the snow-producing assembly is configured for receiving the snow-making water (B, K) with an operating pressure, wherein the snow-making water (B, K) is under at least half the operating pressure in a heat exchanger of the refrigerating machine during operation of the snow-making system .
A composition for use in the treatment or prevention of conditions or diseases of an oral cavity, comprising a probiotic, the probiotic comprising a Lactobacillus helveticus strain and a Lactobacillus plantarum strain.
A flow-straightener vane of a bypass turbomachine with a longitudinal axis (X), the vane comprising a plurality of vane sections stacked radially with respect to the axis (X) along a stacking line (L) between a root end and a tip end , each vane section comprising an pressure-face surface and an suction-face surface extending axially between an upstream leading edge and a downstream trailing edge and being tangentially opposed, characterized in that between the leading and trailing edges of each vane section there is formed a profile chord (CA) the length of which is substantially constant between the tip end and the root end , and in that the stacking line (L) has a curvature, in a plane passing substantially through the axis (X) and through the stacking line (L), located in the vicinity of the tip end and oriented from downstream to upstream.
A tool comprising: a handle portion ; a head portion at an end of the handle portion ; a hammer strike surface at a forward region of the head portion , the hammer strike surface shaped to receive external impact blows; an upper extension and a lower extension of the head portion extending away from the head portion, defining a gap between the upper extension and the lower extension ; and a blade formed in the head portion , situated within the gap between the upper extension and the lower extension ; characterized in that the blade is positioned relative to the hammer strike surface to enable impact blows to the hammer strike surface to drive the blade through a substrate placed in the gap . a handle portion ; a head portion at an end of the handle portion ; a hammer strike surface at a forward region of the head portion , the hammer strike surface shaped to receive external impact blows; an upper extension and a lower extension of the head portion extending away from the head portion, defining a gap between the upper extension and the lower extension ; and a blade formed in the head portion , situated within the gap between the upper extension and the lower extension ; characterized in that the blade is positioned relative to the hammer strike surface to enable impact blows to the hammer strike surface to drive the blade through a substrate placed in the gap .
An implantable medical device comprising an elongated composite tubular body including at least one tubular part made of a biocompatible and RF wave permeable dielectric material , and at least one tubular part made of a biocompatible metallic material , wherein a brazing sealing is provided at an interface between the dielectric material tubular part and the metallic material tubular part , characterized in that at the interface the dielectric material tubular part and the metallic material tubular part have respective planar end faces which are arranged end-to-end against each other without being fit into each other, and in that the brazing sealing is a planar brazing which seals to each other the two opposite respective planar end faces of the dielectric material tubular part and of the metallic material tubular part . characterized in that at the interface the dielectric material tubular part and the metallic material tubular part have respective planar end faces which are arranged end-to-end against each other without being fit into each other, and in that the brazing sealing is a planar brazing which seals to each other the two opposite respective planar end faces of the dielectric material tubular part and of the metallic material tubular part .
Liquid filter for filtering particles out of a liquid, comprising -- a filter housing , -- a filter element which is arranged in the interior of the filter housing and, there, separates a clean side from an untreated side , -- wherein the filter housing has a discharge duct which is arranged on an outer side of the filter housing and which is connected in a fluid-conducting manner to the clean side via an outlet duct formed in a first wall of the filter housing , -- furthermore comprising at least one venting duct which is arranged adjacently to the outlet duct and which is formed in the first wall of the filter housing , characterized in that the at least one venting duct connects the clean side in the interior of the filter housing to the discharge duct . -- a filter housing , -- a filter element which is arranged in the interior of the filter housing and, there, separates a clean side from an untreated side , -- wherein the filter housing has a discharge duct which is arranged on an outer side of the filter housing and which is connected in a fluid-conducting manner to the clean side via an outlet duct formed in a first wall of the filter housing , -- furthermore comprising at least one venting duct which is arranged adjacently to the outlet duct and which is formed in the first wall of the filter housing , characterized in that the at least one venting duct connects the clean side in the interior of the filter housing to the discharge duct .
A communication method, comprising: configuring (S804), by a first device , a plurality of buffers used to compress data packets; compressing (S805), by the first device , a first data packet by using a first buffer, wherein the first buffer is one of the plurality of buffers; and wherein the first buffer is determined based on a serial number of the first data packet or the first buffer is randomly determined; and sending (S806), by the first device , a compressed first data packet to a second device , wherein the compressed first data packet additionally comprises a first indication information when the first buffer is randomly determined, wherein the first indication information indicates a correspondence between the first data packet and the first buffer. configuring (S804), by a first device , a plurality of buffers used to compress data packets; compressing (S805), by the first device , a first data packet by using a first buffer, wherein the first buffer is one of the plurality of buffers; and wherein the first buffer is determined based on a serial number of the first data packet or the first buffer is randomly determined; and sending (S806), by the first device , a compressed first data packet to a second device , wherein the compressed first data packet additionally comprises a first indication information when the first buffer is randomly determined, wherein the first indication information indicates a correspondence between the first data packet and the first buffer. the compressed first data packet additionally comprises a first indication information when the first buffer is randomly determined, wherein the first indication information indicates a correspondence between the first data packet and the first buffer.