mhurhangee/patent-ind-claim-en huggingface dataset:
Patch resonator for nuclear magnetic resonance device comprising: a ground plane , a conductive element , a first dielectric element positioned between said ground plane and said conductive element , said resonator being able to transmit a circularly polarized radiofrequency signal when the resonator is supplied by a first transmission line connected to said conductive element by means of a first connection point and able to receive alternatively a radiofrequency signal circularly polarized in the opposite direction when the resonator is connected to a second transmission line via a second connection point , said resonator comprising on each transmission line a switching means mounted in parallel at a distance from the ground plane corresponding to (2 n + 1) λ /4 with n a natural integer, and λ the wavelength of the guided wave in the transmission line at the operating frequency of the resonator, said switching means making it possible to electrically connect/disconnect said transmission lines from said conductive element .
Support base for an iron comprising a base body provided with an upper surface suitable to support an iron , and containing a tank configured to contain water and a feed pipe which connects the tank with the iron, characterized in that it comprises an audio reproduction device integrated in said base body , wherein said audio reproduction device comprises an antenna or other reception device, configured to receive radio waves and/or radio transmissions and said base body has a cylindrical shape with respect to a central axis (X) and comprises an upper portion in which said tank is housed, and a lower portion in which said audio reproduction device is housed, said tank being disposed in an intermediate position between the latter and said upper surface .
A polyolefin-based composition comprising: (a) a grafted polyolefin composition comprising a polyolefin grafted with an unsaturated monomer; (b) a linear low density polyethylene composition comprising a first metallocene-catalyzed linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 2.5 to 9 grams per 10 minutes, a density from 0.910 to 0.920 grams per cubic centimeter, and a polydispersity index from 2 to 4; and a second metallocene-catalyzed linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 0.5 to 2 grams per 10 minutes, a density from 0.910 to 0.920 grams per cubic centimeter, a polydispersity index from 2 to 4 and optionally a third linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 5 to 10 grams per 10 minutes and a density from 0.910 to 0.925 grams per cubic centimeter. (c) an elastomer composition comprising a polyethylene elastomer; (d) a tackifier composition comprising a hydrocarbon-based tackifier; and (e) optionally, an additives composition having one or more additives. (a) a grafted polyolefin composition comprising a polyolefin grafted with an unsaturated monomer; (b) a linear low density polyethylene composition comprising a first metallocene-catalyzed linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 2.5 to 9 grams per 10 minutes, a density from 0.910 to 0.920 grams per cubic centimeter, and a polydispersity index from 2 to 4; and a second metallocene-catalyzed linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 0.5 to 2 grams per 10 minutes, a density from 0.910 to 0.920 grams per cubic centimeter, a polydispersity index from 2 to 4 and optionally a third linear low density polyethylene having a melt index, measured according to ASTM D 123 8, using a piston load of 2.16 kg and at a temperature of 190°C, from 5 to 10 grams per 10 minutes and a density from 0.910 to 0.925 grams per cubic centimeter. (c) an elastomer composition comprising a polyethylene elastomer; (d) a tackifier composition comprising a hydrocarbon-based tackifier; and (e) optionally, an additives composition having one or more additives.
A forwarding path determining method, characterized in that the method comprises: determining (S 101), by a path computation node, a first segment routing-best effort SR-BE forwarding path from a first node to a second node in a first virtual network, wherein the first node is a start node of data transmission, and the second node is a destination node of the data transmission; determining (S102), by the path computation node, a second SR-BE forwarding path from the first node to the second node in a physical network, wherein the first virtual network is a virtual network established over the physical network; and when the first SR-BE forwarding path completely overlaps the second SR-BE forwarding path, determining (S104), by the path computation node, the first SR-BE forwarding path as a target forwarding path from the first node to the second node in the first virtual network; or when the first SR-BE forwarding path does not completely overlap the second SR-BE forwarding path, determining (S105), by the path computation node, a first segment routing-traffic engineering SR-TE forwarding path according to the physical network and the first virtual network, and determining the first SR-TE forwarding path as a target forwarding path from the first node to the second node in the first virtual network. determining (S 101), by a path computation node, a first segment routing-best effort SR-BE forwarding path from a first node to a second node in a first virtual network, wherein the first node is a start node of data transmission, and the second node is a destination node of the data transmission; determining (S102), by the path computation node, a second SR-BE forwarding path from the first node to the second node in a physical network, wherein the first virtual network is a virtual network established over the physical network; and when the first SR-BE forwarding path completely overlaps the second SR-BE forwarding path, determining (S104), by the path computation node, the first SR-BE forwarding path as a target forwarding path from the first node to the second node in the first virtual network; or when the first SR-BE forwarding path does not completely overlap the second SR-BE forwarding path, determining (S105), by the path computation node, a first segment routing-traffic engineering SR-TE forwarding path according to the physical network and the first virtual network, and determining the first SR-TE forwarding path as a target forwarding path from the first node to the second node in the first virtual network.
Method for determining a confidence index associated with an object (i) detected by a sensor in the environment of a motor vehicle, characterised in that it comprises the following steps: - approximation of the detection zone of the said sensor by a polygon (S0, S1, S2), two of the sides of which are defined by the lateral edges delimiting the angular detection sector (θ) of this sensor; - determination of the centre of gravity (G) of said polygon (S0, S1, S2); - division of said polygon into a plurality of triangular detection sub-zones (Z1, Z2, Z3) each defined by two adjacent vertices of this polygon (S0, S1, S2) and said centre of gravity (G); - identification, when said sensor detects an object (i), of the triangular sub-zone in which this object (i) is located; - determining the equation of the line (Di) passing through said object (i) and being parallel to the outer edge of the triangular sub-area to which said object (i) belongs; and - calculating a confidence index associated with said object (i) according to a decreasing function (F) of the homothetic ratio (k) according to said centre of gravity (G) between said straight line (Di) and that defined by the outer edge of the triangular sub-area to which said object (i) belongs. - approximation of the detection zone of the said sensor by a polygon (S0, S1, S2), two of the sides of which are defined by the lateral edges delimiting the angular detection sector (θ) of this sensor; - determination of the centre of gravity (G) of said polygon (S0, S1, S2); - division of said polygon into a plurality of triangular detection sub-zones (Z1, Z2, Z3) each defined by two adjacent vertices of this polygon (S0, S1, S2) and said centre of gravity (G); - identification, when said sensor detects an object (i), of the triangular sub-zone in which this object (i) is located; - determining the equation of the line (Di) passing through said object (i) and being parallel to the outer edge of the triangular sub-area to which said object (i) belongs; and - calculating a confidence index associated with said object (i) according to a decreasing function (F) of the homothetic ratio (k) according to said centre of gravity (G) between said straight line (Di) and that defined by the outer edge of the triangular sub-area to which said object (i) belongs.
An isolated antibody that binds human Blood dendritic cell antigen 2 (BDCA2) (SEQ ID NO: 1), wherein the antibody comprises a variable heavy (VH) domain that is identical to the amino acid sequence of SEQ ID NO:24; and wherein the antibody comprises a variable light (VL) domain that is identical to the amino acid sequence of SEQ ID NO:23.
An air vent assembly for an HVAC system , the air vent assembly comprising: a cover member having an inlet defined on an aft side thereof, the inlet allowing a flow of air to enter the cover member ; and an elongated linear vent extending from the inlet toward a fore side of the cover member , the vent configured to allow a flow of air to exit the cover member , the vent comprising: a first vent portion having a first set of flow guiding vanes disposed therein; and a second vent portion located adjacent to the first vent portion , the second vent portion having a second set of flow guiding vanes disposed therein, each of the vanes from the first and second set of flow guiding vanes spaced apart from one another and pivotally coupled to a pair of mutually opposing elongated walls of the cover member and extending at least partially between the fore and aft sides of the cover member ; wherein the first set of flow guiding vanes and the second set of flow guiding vanes are independently moveable with respect to each other using an actuating mechanism operatively coupled to each of the first and second sets of flow guiding vanes . a cover member having an inlet defined on an aft side thereof, the inlet allowing a flow of air to enter the cover member ; and an elongated linear vent extending from the inlet toward a fore side of the cover member , the vent configured to allow a flow of air to exit the cover member , the vent comprising: a first vent portion having a first set of flow guiding vanes disposed therein; and a second vent portion located adjacent to the first vent portion , the second vent portion having a second set of flow guiding vanes disposed therein, each of the vanes from the first and second set of flow guiding vanes spaced apart from one another and pivotally coupled to a pair of mutually opposing elongated walls of the cover member and extending at least partially between the fore and aft sides of the cover member ; wherein the first set of flow guiding vanes and the second set of flow guiding vanes are independently moveable with respect to each other using an actuating mechanism operatively coupled to each of the first and second sets of flow guiding vanes . a first vent portion having a first set of flow guiding vanes disposed therein; and a second vent portion located adjacent to the first vent portion , the second vent portion having a second set of flow guiding vanes disposed therein, each of the vanes from the first and second set of flow guiding vanes spaced apart from one another and pivotally coupled to a pair of mutually opposing elongated walls of the cover member and extending at least partially between the fore and aft sides of the cover member ; wherein the first set of flow guiding vanes and the second set of flow guiding vanes are independently moveable with respect to each other using an actuating mechanism operatively coupled to each of the first and second sets of flow guiding vanes .
A solvent separation method of a mixture of ethanol and water comprising: 1) introducing, into a first flash vessel, a fluid which includes carbon dioxide, water and a solvent and has passed through a supercritical extractor; 2) introducing, into a second flash vessel, the fluid which has passed through the first flash vessel; and 3) discharging and recovering the carbon dioxide, water and the solvent which have passed through the second flash vessel, respectively, wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar. 1) introducing, into a first flash vessel, a fluid which includes carbon dioxide, water and a solvent and has passed through a supercritical extractor; 2) introducing, into a second flash vessel, the fluid which has passed through the first flash vessel; and 3) discharging and recovering the carbon dioxide, water and the solvent which have passed through the second flash vessel, respectively, wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar. wherein the pressure of the first flash vessel is 40-100 bar; wherein the temperatures of the first flash vessel and the second flash vessel are maintained at 10-30°C; wherein the first flash vessel and second flash vessel are arranged in series, the pressure condition of the carbon dioxide and solvent is changed stepwise; wherein the solvent is ethanol; characterized in that the pressure of the second flash vessel is 10-30 bar.
A battery state estimating apparatus , comprising: a voltage measuring unit configured to measure a voltage of a battery cell and measure an open circuit voltage (OCV) of the battery cell whenever the measured voltage reaches a reference charge voltage; and a control unit ; characterized in that the control unit is configured to receive the OCV measured by the voltage measuring unit , calculate at least one of a voltage fluctuation rate and an electric resistance fluctuation rate based on a result obtained by processing the received OCV, determine a voltage increase and decrease pattern based on the calculated voltage fluctuation rate and pre-stored voltage fluctuation rate data when the voltage fluctuation rate is calculated, determine a resistance increase and decrease pattern based on the calculated electric resistance fluctuation rate and pre-stored electric resistance fluctuation rate data when the electric resistance fluctuation rate is calculated, determine a degradation acceleration degree of the battery cell according to at least one of the determined voltage increase and decrease pattern and the determined resistance increase and decrease pattern, and change a preset control condition based on the determined degradation acceleration degree. a voltage measuring unit configured to measure a voltage of a battery cell and measure an open circuit voltage (OCV) of the battery cell whenever the measured voltage reaches a reference charge voltage; and a control unit ; characterized in that the control unit is configured to receive the OCV measured by the voltage measuring unit , calculate at least one of a voltage fluctuation rate and an electric resistance fluctuation rate based on a result obtained by processing the received OCV, determine a voltage increase and decrease pattern based on the calculated voltage fluctuation rate and pre-stored voltage fluctuation rate data when the voltage fluctuation rate is calculated, determine a resistance increase and decrease pattern based on the calculated electric resistance fluctuation rate and pre-stored electric resistance fluctuation rate data when the electric resistance fluctuation rate is calculated, determine a degradation acceleration degree of the battery cell according to at least one of the determined voltage increase and decrease pattern and the determined resistance increase and decrease pattern, and change a preset control condition based on the determined degradation acceleration degree.
An insecticidal polypeptide having at least 60% sequence identity to SEQ ID NO: 160, wherein said polypeptide has insecticidal activity against a Lepidopteran species.
A horn for speakers attachable to a speaker , the horn for speakers comprising: a horn body including: a first opening located in a first end portion and having a circular shape; a second opening located in a second end portion and having a shape different from the circular shape; and a sound path connecting the first opening and the second opening , wherein in a cross section including a central axis of the horn body , an inner surface of the sound path flares out in a quartic curve from the first opening toward the second opening , and a length from the first end portion to the second end portion of the horn body is at least 0.8 times as large as a radius of the first opening ; characterized in that in a cross section orthogonal to the central axis of the horn body , a relational expression S = S 0 × (1 + a × z 4 ) is satisfied, where So is an area of the first opening , S is an area of the sound path at position z away from the first opening along the central axis , and a is a constant. a horn body including: a first opening located in a first end portion and having a circular shape; a second opening located in a second end portion and having a shape different from the circular shape; and a sound path connecting the first opening and the second opening , wherein in a cross section including a central axis of the horn body , an inner surface of the sound path flares out in a quartic curve from the first opening toward the second opening , and a length from the first end portion to the second end portion of the horn body is at least 0.8 times as large as a radius of the first opening ; characterized in that in a cross section orthogonal to the central axis of the horn body , a relational expression S = S 0 × (1 + a × z 4 ) is satisfied, where So is an area of the first opening , S is an area of the sound path at position z away from the first opening along the central axis , and a is a constant.
A method for selecting a relay for device-to-device, D2D, and receiving a signal by a user equipment, UE , in a wireless communication system, the method comprising: receiving a plurality of discovery messages including information on a Radio Resource Control, RRC, connection state and a cell identifier, ID; selecting a relay based on a quality of a channel each of the plurality of discovery messages is received through, the RRC connection state and the Cell ID ; and receiving a D2D message from the selected relay. receiving a plurality of discovery messages including information on a Radio Resource Control, RRC, connection state and a cell identifier, ID; selecting a relay based on a quality of a channel each of the plurality of discovery messages is received through, the RRC connection state and the Cell ID ; and receiving a D2D message from the selected relay.
A vehicle lighting device comprising: a reflector and a light source that are incorporated in a lamp room made of a housing and a front lens , wherein the light source is disposed so that a light emission surface of the light source is oriented toward an optical axis (O) of the front lens and the reflector is disposed on one side with respect to a surface on which the light source is to be disposed, the reflector being configured with a curved portion that is adapted to reflect the light from the light source to a side of the front lens , characterized in that a coloring member is disposed adjacent to at least a part of a periphery of the light emission surface of the light source so as not to cover the light emission surface of the light source and is formed integrally with a shade which is provided in front of the light source on the side of the front lens so that the light source is not directly seen when viewed through the front lens . a reflector and a light source that are incorporated in a lamp room made of a housing and a front lens , wherein the light source is disposed so that a light emission surface of the light source is oriented toward an optical axis (O) of the front lens and the reflector is disposed on one side with respect to a surface on which the light source is to be disposed, the reflector being configured with a curved portion that is adapted to reflect the light from the light source to a side of the front lens , the light source is disposed so that a light emission surface of the light source is oriented toward an optical axis (O) of the front lens and the reflector is disposed on one side with respect to a surface on which the light source is to be disposed, the reflector being configured with a curved portion that is adapted to reflect the light from the light source to a side of the front lens , characterized in that a coloring member is disposed adjacent to at least a part of a periphery of the light emission surface of the light source so as not to cover the light emission surface of the light source and is formed integrally with a shade which is provided in front of the light source on the side of the front lens so that the light source is not directly seen when viewed through the front lens .