mhurhangee/ep-ind-claims huggingface dataset:
An arrangement with a gas seal, a stator and a rotor which extends along an axis for sealing a sealing gap between the rotor and the stator, comprising a rotating rotor sealing ring and a static stator sealing ring, comprising a rotating fastening element which fixes the rotating rotor sealing ring axially on the rotor, the fastening element extending at least over part of the circumference in the circumferential direction, characterized in that the fastening element is arranged at least partially in a gap of radial gap height which extends axially and in the circumferential direction between the rotor and the rotating rotor sealing ring, the gap being defined on the side of the rotating rotor sealing ring by a sealing ring surface and on the side of the rotor by a rotor surface, the sealing ring surface having a first depression and the rotor surface having a second depression, the fastening element being arranged partially in the first depression and partially in the second depression, in such a way that an axial relative movement beyond a setpoint position range between the rotating rotor sealing ring and the rotor is possible only via a radial deformation of the fastening element.
An adaptive optics system for correcting aberrations resulting from an observation target or a specimen comprising: an objective lens and a relay optical system comprising one relay lens, two relay lenses, or two relay lens groups, a wavefront phase modulator (6, 16a, 16b) configured to correct aberration for incident light and emit corrected light; wherein said one relay lens, two relay lenses, or two relay lens groups is arranged between said objective lens and said wavefront phase modulator (6, 16a, 16b), and said adaptive optical system further comprising an imaging-conjugated position adjustment mechanism configured to freely adjust the position of a surface imaging-conjugated with a fluctuation correction surface formed by the wavefront phase modulator (6, 16a, 16b) so that the fluctuation correction surface is imaging-conjugated with a fluctuation layer existing in the target or specimen, or between the target or specimen and the objective lens, wherein: the position of the surface imaging conjugated with the fluctuation correction surface in the target or specimen is freely adjusted in dependence upon a changeable optical distance between the objective lens and any one relay lens or lens group of the relay optical system, or upon a changeable optical distance between any one relay lens or lens group of the relay optical system and the wavefront phase modulator (6, 16a, 16b), or upon a changeable optical distance between any two relay lenses or lens groups of the relay optical system. an objective lens and a relay optical system comprising one relay lens, two relay lenses, or two relay lens groups, a wavefront phase modulator (6, 16a, 16b) configured to correct aberration for incident light and emit corrected light; wherein said one relay lens, two relay lenses, or two relay lens groups is arranged between said objective lens and said wavefront phase modulator (6, 16a, 16b), and said adaptive optical system further comprising an imaging-conjugated position adjustment mechanism configured to freely adjust the position of a surface imaging-conjugated with a fluctuation correction surface formed by the wavefront phase modulator (6, 16a, 16b) so that the fluctuation correction surface is imaging-conjugated with a fluctuation layer existing in the target or specimen, or between the target or specimen and the objective lens, wherein: the position of the surface imaging conjugated with the fluctuation correction surface in the target or specimen is freely adjusted in dependence upon a changeable optical distance between the objective lens and any one relay lens or lens group of the relay optical system, or upon a changeable optical distance between any one relay lens or lens group of the relay optical system and the wavefront phase modulator (6, 16a, 16b), or upon a changeable optical distance between any two relay lenses or lens groups of the relay optical system.
A table cutting device, comprising: a workbench on which a workpiece is placed; a cutting assembly capable of performing a cutting operation on the workpiece; a drive assembly comprising a motor and driving the cutting assembly to move; and a power supply connection assembly for connecting a battery pack, wherein the battery pack supplies an energy source to the table cutting device; wherein the table cutting device further comprises: a display assembly capable of displaying an electric quantity of the battery pack, wherein when the battery pack is mounted to the table cutting device, a distance between the display assembly and the battery pack is greater than or equal to 5 mm, characterized in that, the table cutting device comprises a front portion, wherein the front portion comprises at least a support plate, and a scale rail capable of displaying a height of the cutting assembly is disposed on the support plate, wherein the display assembly is located on the front portion of the table cutting device or wherein the display assembly is disposed on the support plate. a workbench on which a workpiece is placed; a cutting assembly capable of performing a cutting operation on the workpiece; a drive assembly comprising a motor and driving the cutting assembly to move; and a power supply connection assembly for connecting a battery pack, wherein the battery pack supplies an energy source to the table cutting device; wherein the table cutting device further comprises: a display assembly capable of displaying an electric quantity of the battery pack, wherein when the battery pack is mounted to the table cutting device, a distance between the display assembly and the battery pack is greater than or equal to 5 mm, characterized in that, the table cutting device comprises a front portion, wherein the front portion comprises at least a support plate, and a scale rail capable of displaying a height of the cutting assembly is disposed on the support plate, wherein the display assembly is located on the front portion of the table cutting device or wherein the display assembly is disposed on the support plate. a display assembly capable of displaying an electric quantity of the battery pack, wherein when the battery pack is mounted to the table cutting device, a distance between the display assembly and the battery pack is greater than or equal to 5 mm, characterized in that, the table cutting device comprises a front portion, wherein the front portion comprises at least a support plate, and a scale rail capable of displaying a height of the cutting assembly is disposed on the support plate, wherein the display assembly is located on the front portion of the table cutting device or wherein the display assembly is disposed on the support plate.
Rail vehicle having a fresh water connection and a wastewater connection, wherein a flap is arranged in front of the fresh water connection in such a way that it covers the latter in a closed position and opens it up in an open position, characterized in that said rail vehicle comprises a sensing unit for detecting the position of the flap and an actuating device, which actuating device is coupled to the sensing unit and arranged on the wastewater connection in such a way that, in a first position, the actuating device permits complete coupling of a land-side connection piece to the wastewater connection or opening of a shut-off member of the wastewater connection only when the flap is completely closed.
An indoor unit of an air conditioner comprising: a main body (25a, 26a); and a transparent first design panel (26b, 80, 81) including a design layer (27a, 27b) having at least a color scheme applied thereto and provided on a surface (261, 262) of a backside portion of the first design panel (26b, 80, 81), characterised in that: the first design panel (26b, 80, 81) includes a mounting portion (74, 91b, 92) integrally provided at the backside so as to be mounted to the main body (25a, 26a); and the first design panel (26b, 80, 81) has a front side surface on which at least a portion opposite the mounting portion (74, 91b, 92) has been subjected to a concealing process to conceal the mounting portion. a main body (25a, 26a); and a transparent first design panel (26b, 80, 81) including a design layer (27a, 27b) having at least a color scheme applied thereto and provided on a surface (261, 262) of a backside portion of the first design panel (26b, 80, 81), the first design panel (26b, 80, 81) includes a mounting portion (74, 91b, 92) integrally provided at the backside so as to be mounted to the main body (25a, 26a); and the first design panel (26b, 80, 81) has a front side surface on which at least a portion opposite the mounting portion (74, 91b, 92) has been subjected to a concealing process to conceal the mounting portion.
A medical device for improving the function of a heart valve, comprising valve tissue, including an annulus at an outer section of said valve tissue and a plurality of leaflets at an inner section of said valve tissue, the medical device comprising: at least a first partly flexible leaflet reinforcement patch having an extension between an inner section and an outer section, wherein said outer section is configured to be oriented towards said annulus, and said inner section is configured to be oriented towards said inner section of said valve tissue, and wherein at least a portion of said inner section of said flexible leaflet reinforcement patch is configured to have in operation at least one of said plurality of leaflets in juxtaposition to said portion of said inner section, and said portion of said inner section being positioned to provide reinforcement to said plurality of leaflets, and a tissue anchoring unit being connected to said outer section of said flexible leaflet reinforcement patch, wherein said tissue anchoring unit is a first loop-shaped support, wherein said tissue anchoring unit provides an abutment against the whole extension of said annulus and wherein a first end of at least one string (80, 90) is configured to be attached to said inner section of said flexible leaflet reinforcement patch, and wherein a second end of said at least one string (80, 82, 90) is configured for being connected to a cardiac structure other than a leaflet, such as a chordae or a papillary muscle. at least a first partly flexible leaflet reinforcement patch having an extension between an inner section and an outer section, wherein said outer section is configured to be oriented towards said annulus, and said inner section is configured to be oriented towards said inner section of said valve tissue, and wherein at least a portion of said inner section of said flexible leaflet reinforcement patch is configured to have in operation at least one of said plurality of leaflets in juxtaposition to said portion of said inner section, and said portion of said inner section being positioned to provide reinforcement to said plurality of leaflets, and a tissue anchoring unit being connected to said outer section of said flexible leaflet reinforcement patch, wherein said tissue anchoring unit is a first loop-shaped support, wherein said tissue anchoring unit provides an abutment against the whole extension of said annulus and wherein a first end of at least one string (80, 90) is configured to be attached to said inner section of said flexible leaflet reinforcement patch, and wherein a second end of said at least one string (80, 82, 90) is configured for being connected to a cardiac structure other than a leaflet, such as a chordae or a papillary muscle.
A modified gelatin comprising: (a) lysine residues; and (b) lysine residues comprising a pendent side chain carrying a thiol group; wherein the modified gelatin comprises at least 50μmoles/g of component (b) and at least 450μmoles/g in total components (a) and (b). (a) lysine residues; and (b) lysine residues comprising a pendent side chain carrying a thiol group;
A catheter ablation device for delivery of energy to a selected region of tissue, the device having an antenna portion including a radiating antenna electrically connectable via an electrical feedline to a source of energy, the antenna configured to generate an electromagnetic field able to ablate tissue in said selected region of tissue, wherein the device comprises an elongated catheter having an outer sheath, the device configured to allow flow of fluid along the catheter to exit through one or more orifices in or adjacent to said antenna portion, and wherein the device includes an impedance monitoring system comprising two electrodes (204, 206), arranged respectively inside and outside said catheter sheath and configured such that in use the impedance monitoring system includes an electric circuit incorporating an ionic conductivity path through said fluid.
A method of wireless communications, comprising: encoding a code block using a low-density parity-check, LDPC, code to generate a stream of encoded bits including systematic bits and parity bits; determining a degree of each of the systematic bits and parity bits; determining a relative priority (312, 412) of each encoded bit based on the degree of each systematic bit and parity bit; arranging the encoded bits in two or more modulation symbols according to the relative priority (312, 412) of each encoded bit, wherein arranging the encoded bits comprises mapping the encoded bits to a location in the two or more modulation symbols based on the relative priority, and wherein higher priority bits are located in a most significant bit of each of the two or more modulation symbols, low priority bits are located in a least significant bit of each of the two or more modulation symbols, and medium priority bits located between the most significant bit and the least significant bit of each of the two or more modulation symbols; and transmitting the two or more modulation symbols. encoding a code block using a low-density parity-check, LDPC, code to generate a stream of encoded bits including systematic bits and parity bits; determining a degree of each of the systematic bits and parity bits; determining a relative priority (312, 412) of each encoded bit based on the degree of each systematic bit and parity bit; arranging the encoded bits in two or more modulation symbols according to the relative priority (312, 412) of each encoded bit, wherein arranging the encoded bits comprises mapping the encoded bits to a location in the two or more modulation symbols based on the relative priority, and wherein higher priority bits are located in a most significant bit of each of the two or more modulation symbols, low priority bits are located in a least significant bit of each of the two or more modulation symbols, and medium priority bits located between the most significant bit and the least significant bit of each of the two or more modulation symbols; and transmitting the two or more modulation symbols.
A stylus comprising: a body; a nosepiece at a first end of the body; a force sensor disposed within the body; a tubular shield moveable within the body and contacting the force sensor such that movement of the tubular shield in response to a force received at the nosepiece moves the force sensor; a signal line within a hollow portion of the tubular shield; a first electric field generator integrated within the nosepiece and electrically coupled to the signal line and coaxially aligned with a longitudinal axis of the body; and a second electric field generator separated from the first electric field generator. a body; a nosepiece at a first end of the body; a force sensor disposed within the body; a tubular shield moveable within the body and contacting the force sensor such that movement of the tubular shield in response to a force received at the nosepiece moves the force sensor; a signal line within a hollow portion of the tubular shield; a first electric field generator integrated within the nosepiece and electrically coupled to the signal line and coaxially aligned with a longitudinal axis of the body; and a second electric field generator separated from the first electric field generator.
An apparatus, applied in a third base station, comprising a receiver and a transmitter, wherein: the receiver is configured to receive configuration information of a discontinuous data transmission parameter of a fourth base station sent by the fourth base station; wherein the configuration information of the discontinuous data transmission parameter comprises at least one of configuration information of a discontinuous reception, DRX parameter and configuration information of a discontinuous transmission, DTX parameter; characterized in that the transmitter is configured to, before receiving the configuration information of the discontinuous data transmission parameter of the fourth base station, send a request information to the fourth base station, wherein the request information is configured to request the fourth base station to transmit the configuration information of the discontinuous data transmission parameter of the fourth base station. the receiver is configured to receive configuration information of a discontinuous data transmission parameter of a fourth base station sent by the fourth base station; wherein the configuration information of the discontinuous data transmission parameter comprises at least one of configuration information of a discontinuous reception, DRX parameter and configuration information of a discontinuous transmission, DTX parameter; characterized in that the transmitter is configured to, before receiving the configuration information of the discontinuous data transmission parameter of the fourth base station, send a request information to the fourth base station, wherein the request information is configured to request the fourth base station to transmit the configuration information of the discontinuous data transmission parameter of the fourth base station.
A method for measuring neighboring cells by a user equipment, UE (1a-1j), in a communication system, the method comprising: receiving information related to a serving cell quality threshold for one or more types of measurements; identifying information related to a measurement gap used for setting up a measurement gap pattern; comparing the serving cell quality threshold and a serving cell quality measured by the UE; performing measurements of the neighboring cells for each of the types of measurements based on a result of the comparison, wherein the measurements are performed synchronized with the measurement gap pattern; and transmitting a measurement report based on the measurements of the neighboring cells according to configuration for reporting set by the network. receiving information related to a serving cell quality threshold for one or more types of measurements; identifying information related to a measurement gap used for setting up a measurement gap pattern; comparing the serving cell quality threshold and a serving cell quality measured by the UE; performing measurements of the neighboring cells for each of the types of measurements based on a result of the comparison, wherein the measurements are performed synchronized with the measurement gap pattern; and transmitting a measurement report based on the measurements of the neighboring cells according to configuration for reporting set by the network.
Capacitor assembly for an air-conditioning system, in particular of a motor vehicle, comprising: a plurality of tubes (2, 12) which provide a flow path (40a, 40b, 40c, 40d) for a cooling fluid, in particular a coolant, a first manifold, a second manifold, a collecting tank, an inlet port for introducing the cooling fluid and an outlet port for discharging the cooling fluid, wherein the collecting tank (22, 50, 62) and the first manifold are disposed on the same side of the tubes, wherein the tubes are in fluid communication with the manifolds (18, 20) and the first manifold is in fluid communication with the collecting tank (22, 50, 62), wherein the outlet port (9, 32, 54, 66) is disposed at the first manifold, at the collecting tank (22, 50, 62) or therebetween and is in direct or indirect fluid communication with the first manifold, and the inlet port (30, 52, 60) is disposed at the collecting tank (22, 50, 62) and the fluid communication between the inlet port (30, 52, 60) and the first manifold is provided by a sealed first chamber inside the collecting tank (22, 50, 62), which is in fluid communication with the inlet port (52, 60) and the first manifold, wherein the first chamber is sealed by a sealing member for the collecting tank and by a sealing element (61, 68), in particular sealing plate, characterized in that the sealing member and the sealing element (61, 68) are connected to one another via a web including an outlet opening for the cooling fluid.
A vent piece used in a manner of being embedded in a prepared hole for air vent provided in an inner face of a vulcanization mold for pneumatic tire, wherein the vent piece is composed of a pillar-shaped member comprising a head part and a trunk part and not having a hole in an axial direction; characterized in that: the head part has a cylindrical shape having a smooth side face; the diameter of the head part is 1.4 to 2.6 mm; and the vent piece is constructed such that air vent is performed through a gap formed between the side face of the head part and a side face part of the prepared hole for air vent. the head part has a cylindrical shape having a smooth side face; the diameter of the head part is 1.4 to 2.6 mm; and the vent piece is constructed such that air vent is performed through a gap formed between the side face of the head part and a side face part of the prepared hole for air vent.
A method for determining a connection state of an all wheel drive assembly in a vehicle, the method comprising: receiving by a vehicle, a message indicative of a hazard and a hazard location; determining a distance to the hazard location from the vehicle; in response to the distance to the hazard location being below a first threshold distance, setting an all wheel drive state for an AWD assembly in the vehicle to a connect state; in response to the distance to the hazard location being above the first threshold, determining a time to the hazard location for the vehicle; and in response to the time to the hazard location being below a threshold AWD connection time, setting the AWD state to the connect state. receiving by a vehicle, a message indicative of a hazard and a hazard location; determining a distance to the hazard location from the vehicle; in response to the distance to the hazard location being below a first threshold distance, setting an all wheel drive state for an AWD assembly in the vehicle to a connect state; in response to the distance to the hazard location being above the first threshold, determining a time to the hazard location for the vehicle; and in response to the time to the hazard location being below a threshold AWD connection time, setting the AWD state to the connect state.