mhurhangee/ep-ind-claims huggingface dataset:
A child safety seat usable in rearward-facing direction and adapted to be secured with a safety belt of a vehicle, comprising: - a seat shell for receiving a child, and - a seat base comprising: a base member configured to be placed on a seat of the vehicle, and a positioning element rigidly attached to the base member, the positioning element extending vertically from the base member when the seat base is placed on the seat of the vehicle, wherein the positioning element comprises an engaging member adapted to engage with the safety belt of the vehicle, and wherein the engaging member is coupled to the positioning element above the upper surface of the base member at a distance, and the engaging member is kept by the positioning element at the distance from the base member, wherein the engaging member is located such that it lies substantially in a horizontal plane with a point of exit of the safety belt of the vehicle when the seat base is placed on the seat of the vehicle. - a seat shell for receiving a child, and - a seat base comprising: a base member configured to be placed on a seat of the vehicle, and a positioning element rigidly attached to the base member, the positioning element extending vertically from the base member when the seat base is placed on the seat of the vehicle, wherein the positioning element comprises an engaging member adapted to engage with the safety belt of the vehicle, and wherein the engaging member is coupled to the positioning element above the upper surface of the base member at a distance, and the engaging member is kept by the positioning element at the distance from the base member, wherein the engaging member is located such that it lies substantially in a horizontal plane with a point of exit of the safety belt of the vehicle when the seat base is placed on the seat of the vehicle. a base member configured to be placed on a seat of the vehicle, and a positioning element rigidly attached to the base member, the positioning element extending vertically from the base member when the seat base is placed on the seat of the vehicle, wherein the positioning element comprises an engaging member adapted to engage with the safety belt of the vehicle, and wherein the engaging member is coupled to the positioning element above the upper surface of the base member at a distance, and the engaging member is kept by the positioning element at the distance from the base member, wherein the engaging member is located such that it lies substantially in a horizontal plane with a point of exit of the safety belt of the vehicle when the seat base is placed on the seat of the vehicle.
A refrigeration system (20A; 20B; 20C; 20D; 20E; 20A'; 20A") comprising: a main refrigerant path; an evaporator; a plurality of compressors (32, 34, 35; 70; 80; 90; 100) for compressing a refrigerant, each of the compressors having a suction port (37, 52, 56; 72; 82; 92; 102) and a discharge port (39, 54, 58; 74; 84; 94; 104); a heat rejecting heat exchanger for cooling the refrigerant; and a plurality of economizer circuits (25A, 25B; 25C; 25D; 25E) each comprising an economizer heat exchanger (28A, 28B; 28A', 28B'; 28A", 28B"), wherein each of the economizer circuits is configured to inject a portion of the refrigerant into the suction port of one of the compressors, characterised in that an economizer path (42A, 42B) of each of the economizer circuits is in a heat exchanger relationship with the main refrigerant path (40A, 40B) for cooling the main refrigerant path in the respective economizer heat exchanger, and in that the discharge port (39, 54, 58; 74; 84; 94; 104) of each of the compressors is directly connected to the heat rejecting heat exchanger. a main refrigerant path; an evaporator; a plurality of compressors (32, 34, 35; 70; 80; 90; 100) for compressing a refrigerant, each of the compressors having a suction port (37, 52, 56; 72; 82; 92; 102) and a discharge port (39, 54, 58; 74; 84; 94; 104); a heat rejecting heat exchanger for cooling the refrigerant; and a plurality of economizer circuits (25A, 25B; 25C; 25D; 25E) each comprising an economizer heat exchanger (28A, 28B; 28A', 28B'; 28A", 28B"), wherein each of the economizer circuits is configured to inject a portion of the refrigerant into the suction port of one of the compressors, characterised in that an economizer path (42A, 42B) of each of the economizer circuits is in a heat exchanger relationship with the main refrigerant path (40A, 40B) for cooling the main refrigerant path in the respective economizer heat exchanger, and in that the discharge port (39, 54, 58; 74; 84; 94; 104) of each of the compressors is directly connected to the heat rejecting heat exchanger.
A compound selected from the group consisting of: a compound of formula: wherein in: R 1, R 2 and R 3 are independently selected from the group consisting of H, cyano, hydroxyl, amino, acetamido, halo, alkoxy, nitro, C 1-6 alkyl, substituted C 1-6 alkyl, heteroalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, aryl-(C 1-3)alkyl, substituted aryl-(C 1-3)alkyl, carboxy, alkylcarboxy, formyl, alkyl-carbonyl, aryl-carbonyl, and heteroaryl-carbonyl; R 4 and R 5 are independently selected from the group consisting of H, C 1-6 alkyl, substituted C 1-6 alkyl, heteroalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, aryl-(C 1-3)alkyl, and substituted aryl-(C 1-3)alkyl; and, n is 2, 3, 4 or 5; a pharmaceutically acceptable salt or solvate thereof, and any mixtures thereof for use in treating or preventing an attention disorder, a cognitive disorder, or dementia associated with a neurodegenerative disease in a subject in need thereof. R 1, R 2 and R 3 are independently selected from the group consisting of H, cyano, hydroxyl, amino, acetamido, halo, alkoxy, nitro, C 1-6 alkyl, substituted C 1-6 alkyl, heteroalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, aryl-(C 1-3)alkyl, substituted aryl-(C 1-3)alkyl, carboxy, alkylcarboxy, formyl, alkyl-carbonyl, aryl-carbonyl, and heteroaryl-carbonyl; R 4 and R 5 are independently selected from the group consisting of H, C 1-6 alkyl, substituted C 1-6 alkyl, heteroalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, aryl-(C 1-3)alkyl, and substituted aryl-(C 1-3)alkyl; and, n is 2, 3, 4 or 5;
A method of operating a storage device which communicates with a host device, the method comprising: allocating a secure region and a user region in the storage device; storing first data encrypted by using a first encryption key in a first data block of the secure region; decrypting at least one valid data of the first data block using the first encryption key in response to receiving a first request from the host device, wherein the first request indicates a first secure delete operation of the first data and the at least one valid data does not include the first data; encrypting the decrypted at least one valid data using a second encryption key, wherein the second encryption key is different from the first encryption key; storing the encrypted at least one valid data in a second data block of the secure region; and deleting the first encryption key. allocating a secure region and a user region in the storage device; storing first data encrypted by using a first encryption key in a first data block of the secure region; decrypting at least one valid data of the first data block using the first encryption key in response to receiving a first request from the host device, wherein the first request indicates a first secure delete operation of the first data and the at least one valid data does not include the first data; encrypting the decrypted at least one valid data using a second encryption key, wherein the second encryption key is different from the first encryption key; storing the encrypted at least one valid data in a second data block of the secure region; and deleting the first encryption key.
An inspection system for inspecting an amount of dielectric particles contained in a sample liquid, the inspection system comprising: a dielectric collection unit including at least one pair of electrodes (41, 42) and a flow channel extending in a predetermined direction on the pair of electrodes (41, 42); a pump unit configured to feed the sample liquid to follow the flow channel in the predetermined direction; and an AC voltage supply unit configured to supply, to the pair of electrodes (41, 42), an AC voltage with a predetermined frequency to cause dielectrophoresis for dielectric particles in the fed sample liquid, wherein the dielectric collection unit includes a plurality of slits (Rs) between the pair of electrodes (41, 42), wherein the plurality of slits (Rs) are arranged at predetermined intervals in the predetermined direction, and wherein each of the plurality of slits (Rs) is separated from each other within the flow channel and the system further comprises an imaging unit configured to capture an image of a predetermined region (Rc) in which the plurality of slits (Rs) are aligned in the dielectric collection unit; and an image analysis unit configured to analyze an image captured by the imaging unit, characterized in that the image analysis unit is configured to count saturated slits among the captured slits, the saturated slits being slits filled with the dielectric particles in turn from the upstream. a dielectric collection unit including at least one pair of electrodes (41, 42) and a flow channel extending in a predetermined direction on the pair of electrodes (41, 42); a pump unit configured to feed the sample liquid to follow the flow channel in the predetermined direction; and an AC voltage supply unit configured to supply, to the pair of electrodes (41, 42), an AC voltage with a predetermined frequency to cause dielectrophoresis for dielectric particles in the fed sample liquid, wherein the dielectric collection unit includes a plurality of slits (Rs) between the pair of electrodes (41, 42), wherein the plurality of slits (Rs) are arranged at predetermined intervals in the predetermined direction, and wherein each of the plurality of slits (Rs) is separated from each other within the flow channel and the system further comprises an imaging unit configured to capture an image of a predetermined region (Rc) in which the plurality of slits (Rs) are aligned in the dielectric collection unit; and an image analysis unit configured to analyze an image captured by the imaging unit, characterized in that the image analysis unit is configured to count saturated slits among the captured slits, the saturated slits being slits filled with the dielectric particles in turn from the upstream.
A vehicle interior assembly, comprising: a frame defining an opening; and a door having a closed position, in which the door closes off the opening, and an open position, wherein movement of the door from the closed position to the open position includes vertical movement to a dropped position and horizontal movement from the dropped position to the open position, characterized in that the door is concealed from view in the open position, and in that the assembly further comprises a guide (20a, 20b) configured to constrain movement of the door in all horizontal directions during movement between the closed position and the dropped position. a frame defining an opening; and a door having a closed position, in which the door closes off the opening, and an open position, wherein movement of the door from the closed position to the open position includes vertical movement to a dropped position and horizontal movement from the dropped position to the open position, characterized in that the door is concealed from view in the open position, and in that the assembly further comprises a guide (20a, 20b) configured to constrain movement of the door in all horizontal directions during movement between the closed position and the dropped position.
An inhibitor of the interaction between T cells and the complex MHC-II and the human collagen type II or antigenic fragment thereof, for use in the treatment of rheumatoid arthritis, characterized in that said inhibitor has the chemical formula in which R and R 1 are independently selected from hydrogen, chlorine, bromine or iodine; R 2 is a substituent selected from hydroxyl, methyl, ethyl, n-propyl, isopropyl; R 3 is selected from N and CH and R 4 is selected from N or CH, and is in the form of a racemic mixture of isolated enantiomers or their salts.
A subsea basket (101; 200, 201; 651; 751) for the subsea transfer of seismic nodes, comprising a frame; and a plurality of node holders (221; 400; 521; 661; 761, 771, 781), each node holder (221; 400; 521; 661; 761, 771, 781) being configured to hold a plurality of seismic nodes, said plurality of node holders (221; 400; 521; 661; 761, 771, 781) comprising a first node holder at a first vertical height and a second node holder at a second vertical height; characterized in that said subsea basket (101; 200, 201; 651; 751) further comprises an elevator assembly (230; 630) coupled to the frame and to the plurality of node holders (221; 400; 521; 661; 761, 771, 781), wherein the elevator assembly (230; 630) is configured to vertically move the plurality of node holders (221; 400; 521; 661; 761, 771, 781) with the plurality of seismic nodes within the frame. a frame; and a plurality of node holders (221; 400; 521; 661; 761, 771, 781), each node holder (221; 400; 521; 661; 761, 771, 781) being configured to hold a plurality of seismic nodes, said plurality of node holders (221; 400; 521; 661; 761, 771, 781) comprising a first node holder at a first vertical height and a second node holder at a second vertical height; characterized in that said subsea basket (101; 200, 201; 651; 751) further comprises an elevator assembly (230; 630) coupled to the frame and to the plurality of node holders (221; 400; 521; 661; 761, 771, 781), wherein the elevator assembly (230; 630) is configured to vertically move the plurality of node holders (221; 400; 521; 661; 761, 771, 781) with the plurality of seismic nodes within the frame.
An inspection system to measure alignment of components comprising: a remotely controllable imaging assembly including a camera and a lens system, wherein the lens system includes a tunable-focus lens and a magnifying lens between the camera and the tunable-focus lens; and a scale reticle positioned within a sight line of the camera of the imaging assembly such that the scale reticle is between the imaging assembly and a target. a remotely controllable imaging assembly including a camera and a lens system, wherein the lens system includes a tunable-focus lens and a magnifying lens between the camera and the tunable-focus lens; and a scale reticle positioned within a sight line of the camera of the imaging assembly such that the scale reticle is between the imaging assembly and a target.
A delivery system (520, 1220) for delivering a heart valve prosthesis comprising: a heart valve prosthesis; and a delivery catheter (526, 1226) having no capsule covering a full length of the heart valve prosthesis, the delivery catheter including, a capsule segment (529, 1229) configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism (550, 1250) surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment (529, 1229) and the cinch mechanism (550, 1250) are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter (526, 1226) is in a delivery configuration. a heart valve prosthesis; and a delivery catheter (526, 1226) having no capsule covering a full length of the heart valve prosthesis, the delivery catheter including, a capsule segment (529, 1229) configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism (550, 1250) surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment (529, 1229) and the cinch mechanism (550, 1250) are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter (526, 1226) is in a delivery configuration. a capsule segment (529, 1229) configured to encircle a first portion of the heart valve prosthesis and to thereby hold the first portion of the heart valve prosthesis in a reduced diameter state for delivery to a treatment site, and a cinch mechanism (550, 1250) surrounding a second portion of the heart valve prosthesis and configured to hold the remainder of the heart valve prosthesis in a reduced diameter state for delivery to the treatment site, wherein the capsule segment (529, 1229) and the cinch mechanism (550, 1250) are disposed longitudinally adjacent to each other and do not overlap when the delivery catheter (526, 1226) is in a delivery configuration.
A device, comprising: one or more electrodes (500, 502, 504, 506, 508, 510); a sensing circuit coupled to the one or more electrodes (500, 502, 504, 506, 508, 510) and configured to obtain a signal indicative of electrical activity of a patient's heart; and at least one of a processor or controller configured to obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold. one or more electrodes (500, 502, 504, 506, 508, 510); a sensing circuit coupled to the one or more electrodes (500, 502, 504, 506, 508, 510) and configured to obtain a signal indicative of electrical activity of a patient's heart; and at least one of a processor or controller configured to obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold. obtain an ordered list of R-R intervals within a window leading up to a detection of a potential arrhythmia episode, wherein each of the R-R intervals has a respective duration; and determine, for a value for k selected from a range of values from 1 to M, where M is an integer that is at least 4, an indicator of a median R-R interval difference between pairs of the R-R intervals within the window that are k intervals apart, wherein the at least one of a processor or controller is/are configured to: compare the indicator of the median R-R interval difference to a threshold; and determine that the detection of the potential arrhythmia episode does not correspond to an actual arrhythmia episode, if the indicator of the median R-R interval difference is less than the threshold.
Layer construction comprising - at least one layer comprising at least one thermoplastic and - at least one layer comprising a polyester component comprising at least one poly- or copolycondensate of terephthalic acid or naphthalenedicarboxylic acid, wherein the polyester component has radicals of cyclohexane-1,4-dimethanol in an amount of from 25 to 75 mol%, based on the radicals of the diol component(s) in all the poly- or copolyesters which the polyester component comprises, characterized in that at least one phosphite is added to the plastics composition for the production of the layer(s), wherein "phosphite" means an ester of phosphonic acid having general formula P 3 where R represents aliphatic, aromatic and/or cycloaliphatic hydrocarbon radicals, wherein the hydrocarbon radicals R may optionally also contain heteroatoms and wherein the aromatic hydrocarbon radicals may comprise further substituents. - at least one layer comprising at least one thermoplastic and - at least one layer comprising a polyester component comprising at least one poly- or copolycondensate of terephthalic acid or naphthalenedicarboxylic acid,
A method for performing Coordinated Multi-Point, CoMP, transmission at a first network node in wireless communication network, the method comprising: receiving, by the first network node, CoMP information including at least one CoMP hypothesis set and at least one benefit metric associated with each of the at least one CoMP hypothesis set from a second network node; and performing, by the first network node, CoMP transmission based on the CoMP information; wherein a CoMP hypothesis included in the each of the at least one CoMP hypothesis set includes hypothetical resource allocation information for the first network node, wherein the at least one benefit metric has a first value or a second value among values within a specific range, wherein when the at least one benefit metric has the second value among the values within the specific range, the values within the specific range quantify a benefit that the second network node expects on an assumption of the at least one CoMP hypothesis set, and wherein, when the at least one benefit metric has the first value, the first value is information which is different from the benefits of the at least one CoMP hypothesis set. receiving, by the first network node, CoMP information including at least one CoMP hypothesis set and at least one benefit metric associated with each of the at least one CoMP hypothesis set from a second network node; and performing, by the first network node, CoMP transmission based on the CoMP information; wherein a CoMP hypothesis included in the each of the at least one CoMP hypothesis set includes hypothetical resource allocation information for the first network node, wherein the at least one benefit metric has a first value or a second value among values within a specific range, wherein when the at least one benefit metric has the second value among the values within the specific range, the values within the specific range quantify a benefit that the second network node expects on an assumption of the at least one CoMP hypothesis set, and wherein, when the at least one benefit metric has the first value, the first value is information which is different from the benefits of the at least one CoMP hypothesis set.