mhurhangee/patent-ind-claim-en huggingface dataset:
Sliding support arrangement in a closure of a roof assembly for a vehicle, the roof assembly comprising at least a guide rail extending substantially in an X-direction, and a slidable element (6; 8, 17; 21) movable relative to the guide rail, the sliding support arrangement comprising a slide shoe engaging the guide rail and supporting the slidable element at least in Z-direction perpendicular to the X- and a Y-direction, the slide shoe including a first part fixed to the slidable element (6; 8, 17; 21) and a relatively movable second part , the second part being supported by the first part at least in part through a spring urging the first and second parts of the slide shoe in engagement with walls (12-15;12,14a,14b;12a,12b,14;12,14,15) of the guide rail , characterized in that the spring exerts a force which is directed at an non-perpendicular angle to at least one (12-15;14a,14b;12a,12b;12) of said walls of the guide rail .
A metal complex, having a structural formula (I): wherein, M is a metal atom selected from the group consisting of iridium (Ir), platinum (Pt), osmium (Os), rhenium (Re), ruthenium (Ru) and copper (Cu); and in the (C^N) substructure located on a left side of the metal atom M in the structural formula (I), C is located in a first aromatic or heteroaromatic ring, and N is located in a second heteroaromatic ring, characterized in that R 1 , R 2 , R 3 and R 4 are independently a substituted phenyl. wherein, M is a metal atom selected from the group consisting of iridium (Ir), platinum (Pt), osmium (Os), rhenium (Re), ruthenium (Ru) and copper (Cu); and in the (C^N) substructure located on a left side of the metal atom M in the structural formula (I), C is located in a first aromatic or heteroaromatic ring, and N is located in a second heteroaromatic ring, characterized in that R 1 , R 2 , R 3 and R 4 are independently a substituted phenyl.
An autonomous travel path planning method to plan a path that an autonomous traveling body autonomously travels, the method comprising: obtaining a travel area (TA) to perform filling travel in an environmental map; creating (S31) a first grid area (GA1) covering an area corresponding to the travel area (TA) with a plurality of grid cells; calculating (S32) a deviation width of a body of the autonomous traveling body from the travel area when the autonomous traveling body changes its direction and as a distance to a maximum deviation area boundary, based on a body size of the autonomous traveling body , a turning radius thereof, a turning movement distance, and a grid cell size; creating (S34) one or more inner rounding paths corresponding to at least a part of the deviation width to travel the deviation width; creating (S35) a second grid area (GA2) having a boundary at a position corresponding to an innermost inner rounding path by validating, of the plurality of grid cells included in the first grid area, a grid cell in which the innermost inner rounding path is included, and invalidating other grid cells of the first grid area (GA1), so that the grid cells in the first grid area (GA1) that include the innermost inner rounding path or that are inside thereof are determined to be the grid cells in the second grid area (GA2); and creating (S36) a filling travel path so as to fill the inside of the second grid area (GA2) with the travel path. obtaining a travel area (TA) to perform filling travel in an environmental map; creating (S31) a first grid area (GA1) covering an area corresponding to the travel area (TA) with a plurality of grid cells; calculating (S32) a deviation width of a body of the autonomous traveling body from the travel area when the autonomous traveling body changes its direction and as a distance to a maximum deviation area boundary, based on a body size of the autonomous traveling body , a turning radius thereof, a turning movement distance, and a grid cell size; creating (S34) one or more inner rounding paths corresponding to at least a part of the deviation width to travel the deviation width; creating (S35) a second grid area (GA2) having a boundary at a position corresponding to an innermost inner rounding path by validating, of the plurality of grid cells included in the first grid area, a grid cell in which the innermost inner rounding path is included, and invalidating other grid cells of the first grid area (GA1), so that the grid cells in the first grid area (GA1) that include the innermost inner rounding path or that are inside thereof are determined to be the grid cells in the second grid area (GA2); and creating (S36) a filling travel path so as to fill the inside of the second grid area (GA2) with the travel path.
An apparatus comprising means for: providing a plurality of electrical input signals to a biological sample ; receiving a plurality of electrical output signals from the biological sample where the electrical output signals correspond to the electrical input signals and the values of the electrical output signals are based on one or more electrical properties of the biological sample ; controlling the electrical input signals so that the plurality of electrical output signals from the biological sample comprise one or more general features and one or more sub-features where the one or more general features and the one or more sub-features enable one or more characteristics of the biological sample to be identified; wherein the one or more general features and the one or more sub-features comprise measurement points within the plurality of electrical output signals ; and wherein the one or more general features comprise one or more global minima or maxima within one or more of the electrical output signals and the one or more sub-features comprise local minima or maxima within the one or more electrical output signals . providing a plurality of electrical input signals to a biological sample ; receiving a plurality of electrical output signals from the biological sample where the electrical output signals correspond to the electrical input signals and the values of the electrical output signals are based on one or more electrical properties of the biological sample ; controlling the electrical input signals so that the plurality of electrical output signals from the biological sample comprise one or more general features and one or more sub-features where the one or more general features and the one or more sub-features enable one or more characteristics of the biological sample to be identified; wherein the one or more general features and the one or more sub-features comprise measurement points within the plurality of electrical output signals ; and wherein the one or more general features comprise one or more global minima or maxima within one or more of the electrical output signals and the one or more sub-features comprise local minima or maxima within the one or more electrical output signals .
An aqueous dispersion comprising core-shell polymer latex particles wherein the shell of the core-shell polymer latex particles bears ethylenically unsaturated groups pending from the polymeric backbone of the shell of the latex particles wherein the ethylenic unsaturation is separated from the polymeric backbone by at least 3 chemical bonds and wherein the shell of the core-shell particles is cross-linked and the core of the core-shell particles is not crosslinked.
A liquid seasoning containing edible plant ingredients and satisfying the requirements to below. The content of an edible-plant-ingredient fraction A, which remains on a sieve with an opening of 2.50 centimeters, is 10 mass % or higher. The content of an edible-plant-ingredient fraction B, which passes through a sieve with an opening of 2.50 centimeters and remains on a sieve with an opening of 75 micrometers, is 10 mass % or higher and 80 mass % or lower. The hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis is 1 ppb or higher and 15000 ppb or lower. The dimethyl disulfide (DMDS) content in the ingredient fraction B in terms of wet mass basis is 0.01 ppb or higher and 1000 ppb or lower. The mass ratio of the hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis to the hexanal content in the ingredient fraction B in terms of oil-and-fat mass basis is higher than 1.0. The content of an edible-plant-ingredient fraction A, which remains on a sieve with an opening of 2.50 centimeters, is 10 mass % or higher. The content of an edible-plant-ingredient fraction B, which passes through a sieve with an opening of 2.50 centimeters and remains on a sieve with an opening of 75 micrometers, is 10 mass % or higher and 80 mass % or lower. The hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis is 1 ppb or higher and 15000 ppb or lower. The dimethyl disulfide (DMDS) content in the ingredient fraction B in terms of wet mass basis is 0.01 ppb or higher and 1000 ppb or lower. The mass ratio of the hexanal content in the ingredient fraction A in terms of oil-and-fat mass basis to the hexanal content in the ingredient fraction B in terms of oil-and-fat mass basis is higher than 1.0.
A turbofan engine assembly (10;110) comprising: a compressor (14;114); an intermittent internal combustion engine having an inlet in fluid communication with an outlet of the compressor (14;114) through at least one first passage of an intercooler ; a turbine having an inlet in fluid communication with an outlet of the intermittent internal combustion engine , the turbine compounded with the internal combustion engine ; a bypass duct surrounding the intermittent internal combustion engine , compressor (14;114) and turbine ; and a fan configured to propel air through the bypass duct and through an inlet (14i;114i) of the compressor (14;114), wherein the intercooler is located in the bypass duct , the intercooler has at least one second passage (64") in heat exchange relationship with the at least one first passage , the at least one second passage (64") is in fluid communication with the bypass duct , and the fan and rotors (15,26',27';115) of the compressor (14;114) and of the turbine are drivingly engaged to a shaft of the intermittent internal combustion engine . a compressor (14;114); an intermittent internal combustion engine having an inlet in fluid communication with an outlet of the compressor (14;114) through at least one first passage of an intercooler ; a turbine having an inlet in fluid communication with an outlet of the intermittent internal combustion engine , the turbine compounded with the internal combustion engine ; a bypass duct surrounding the intermittent internal combustion engine , compressor (14;114) and turbine ; and a fan configured to propel air through the bypass duct and through an inlet (14i;114i) of the compressor (14;114), wherein the intercooler is located in the bypass duct , the intercooler has at least one second passage (64") in heat exchange relationship with the at least one first passage , the at least one second passage (64") is in fluid communication with the bypass duct , and the fan and rotors (15,26',27';115) of the compressor (14;114) and of the turbine are drivingly engaged to a shaft of the intermittent internal combustion engine .
A drapery system comprising an elongate support member , which defines an elongate space for housing a drapery track , wherein the elongate support member comprises a first elongate plate-shaped portion , which extends in a longitudinal direction of the elongate support member and defines the elongate space in one direction, wherein the first plate-shaped portion forms a back section of the elongate support member and wherein the elongate support member comprises a second and third plate-shaped portion , which extend perpendicularly relative to the first plate-shaped portion and are spaced in a width direction of the elongate support member and wherein the first, second and third plate-shaped portions define the elongate space, wherein the elongate support member comprises at least one connector projecting from the first plate-shaped portion in the elongate space, and wherein the drapery system comprises a connection structure , which is adapted for engagement with the drapery track and with the at least one connector , wherein the connection structure is adapted to be a spacer between the elongate support member and the drapery track , wherein the connection structure comprises a first contact surface for contacting an inner surface of the elongate support member in a first direction and a second contact surface for contacting the drapery track in a second direction, which is opposite the first direction, and wherein the connection structure has an extension between the first contact surface and the second contact surface that is adapted to a height of the drapery track so that a lower surface of the drapery track is substantially flush with a lower surface of the elongate support member , wherein the connection structure comprises a first body , which is adapted to be positioned between the drapery track and the first elongate plate-shaped portion of the elongate support member, wherein the first body comprises a connection means , which is accessible from a side of the body, which is adapted to face the drapery track and wherein the connection means comprises a through-hole and wherein the connection structure comprises a fastener for being received in the through hole and fastening to the at least one connector of the elongate support member .
A flow meter for measuring a flow of a fluid having - a measurement sensor that has a conduit for the fluid having a pipe wall ; - at least one phased array ultrasound transducer unit that has ultrasound transducers arranged in a planar array having a surface normal that can irradiate ultrasound signals at different irradiation angles (γ), and that can receive ultrasound signals from different reception angles (φ); - a control and evaluation unit that is configured to control the ultrasound transducer unit to transmit the ultrasound signals along a measurement path and to evaluate the received ultrasound signals and to determine a flow using times of flight of the ultrasound signals, wherein the measurement sensor has at least one reflector that is configured to reflect the ultrasound signals transmitted by the ultrasound transducer unit back to the same ultrasound transducer unit , and the ultrasound signals pass through the measurement path from the ultrasound transducer unit to the reflector and back to the ultrasound transducer unit on at least three different path sections , characterized in that the ultrasound transducer unit is oriented such that the ultrasound signals are transmitted and received back after passing through the measurement path at irradiation angles (γ) and angles of incidence (φ) of the same amounts with respect to the surface normal . - a measurement sensor that has a conduit for the fluid having a pipe wall ; - at least one phased array ultrasound transducer unit that has ultrasound transducers arranged in a planar array having a surface normal that can irradiate ultrasound signals at different irradiation angles (γ), and that can receive ultrasound signals from different reception angles (φ); - a control and evaluation unit that is configured to control the ultrasound transducer unit to transmit the ultrasound signals along a measurement path and to evaluate the received ultrasound signals and to determine a flow using times of flight of the ultrasound signals, wherein the measurement sensor has at least one reflector that is configured to reflect the ultrasound signals transmitted by the ultrasound transducer unit back to the same ultrasound transducer unit , and the ultrasound signals pass through the measurement path from the ultrasound transducer unit to the reflector and back to the ultrasound transducer unit on at least three different path sections ,
A hub assembly for an injection apparatus, comprising: a cover having outer and inner surfaces ; a hub disposed in said cover and having first and second ends and outer and inner surfaces , an opening being formed at said first end characterized in that the hub comprises threads being formed on said inner surface proximal said second end to facilitate connecting said hub assembly to a cartridge of said injection apparatus; and that the hub assembly further comprises at least one protrusion formed on said outer surface of said hub proximal said first end; at least one cut-out portion formed in said inner surface of said cover ; and a cantilever hook formed in each of said at least one cut-out portions of said cover , said cantilever hook having an arm and a projection such that when said hub is disposed in said cover said at least one protrusion engages said arm of said at least one cantilever hook such that an interference fit is formed between said hub and said cover ; wherein said at least one protrusion moves along said at least one cantilever hook when said hub assembly is being connected with the cartridge , and when said hub assembly is properly connected said at least one protrusion slides over said projection of said cantilever arm into said cut-out portion thereby indicating to the user that said hub assembly and cartridge are properly connected by rotating said cover over said hub . a cover having outer and inner surfaces ; a hub disposed in said cover and having first and second ends and outer and inner surfaces , an opening being formed at said first end characterized in that the hub comprises threads being formed on said inner surface proximal said second end to facilitate connecting said hub assembly to a cartridge of said injection apparatus; and that the hub assembly further comprises at least one protrusion formed on said outer surface of said hub proximal said first end; at least one cut-out portion formed in said inner surface of said cover ; and a cantilever hook formed in each of said at least one cut-out portions of said cover , said cantilever hook having an arm and a projection such that when said hub is disposed in said cover said at least one protrusion engages said arm of said at least one cantilever hook such that an interference fit is formed between said hub and said cover ; wherein said at least one protrusion moves along said at least one cantilever hook when said hub assembly is being connected with the cartridge , and when said hub assembly is properly connected said at least one protrusion slides over said projection of said cantilever arm into said cut-out portion thereby indicating to the user that said hub assembly and cartridge are properly connected by rotating said cover over said hub .
A neck support member for use in supporting the neck, the neck support member configured so as to be releasably engageable with a first edge of a main pillow body , which comprises a first face , an opposing second face and the first edge joining the first and second faces, the neck support member having a first body portion and a second body portion extending from an end of the first body portion, the first body portion configured so as to be useable to cover at least part of the first face of the main pillow body adjacent the first edge of the main pillow body; and the second body portion disposed relative to the first body portion so as to be useable to extend over the first pillow edge of the main pillow body from the first body portion toward the second pillow face , wherein the first and second body portions , when disposed as such in use, provide a raised surface relative to a main pillow body surface for supporting the neck; wherein the first body portion of the neck support member comprises an elongate body portion configured relative to the first and second body portions so as to be useable, when the neck support member is engaged to the first pillow edge , to extend over a face of the main pillow body to cover at least part of the first face of the main pillow body adjacent the first pillow edge and configured so as to be useable such that at least part of the elongate body portion extends underneath at least part of the user's head when the user's head and neck is placed on the pillow in use, characterised in that the part of the first body portion that is configured so as to be useable to cover the part of the main pillow body first face adjacent the first pillow edge when the neck support member is in engagement with the first pillow edge in use has a maximum thickness greater than the elongate body portion extending away from said first body portion.
A method for generating either a scroll command or an up-down-left-right, UDLR, command using a control element of a three-dimensional, 3D, pointing device , wherein the control element is a control pad configured to detect motion of an object across a surface of the control pad and to generate a set of input information according to the detected motion, the method comprising: selecting an operational mode for the 3D pointing device , the operational mode being one of a scroll mode and an UDLR mode, for generating any of a scroll command or an UDLR command; detecting, by the control pad , a motion of an object across the surface of the control pad ; and determining a set of input information associated with the detected motion, the set of information including information indicating a direction, a distance, and a rate for the detected motion; and based on the input information for the detected motion: generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected. selecting an operational mode for the 3D pointing device , the operational mode being one of a scroll mode and an UDLR mode, for generating any of a scroll command or an UDLR command; detecting, by the control pad , a motion of an object across the surface of the control pad ; and determining a set of input information associated with the detected motion, the set of information including information indicating a direction, a distance, and a rate for the detected motion; and based on the input information for the detected motion: generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected. generating a scroll command corresponding to the input information on condition that the scroll mode is selected, and generating an UDLR command corresponding to the input information on condition that the UDLR mode is selected.