mhurhangee/patent-ind-claim-en huggingface dataset:
A capsule for hot isostatic pressing (HIPing), said capsule comprising: (i) an additive manufactured (AM) element, wherein said AM element includes a first volume which has density of less than 99.5% of its fully dense density; (ii) a capsule element (A) and a capsule element (B), wherein said capsule element (A) is arranged to define at least part of a void for containing a powder (XX) arranged to be subjected to hot isostatic pressing (HIP), wherein capsule element (A) is secured to the AM element and is made from a different material compared to that of said AM element and capsule element (B) is secured to the AM element and is made from a different material compared to that of said AM element. (i) an additive manufactured (AM) element, wherein said AM element includes a first volume which has density of less than 99.5% of its fully dense density; (ii) a capsule element (A) and a capsule element (B), wherein said capsule element (A) is arranged to define at least part of a void for containing a powder (XX) arranged to be subjected to hot isostatic pressing (HIP), wherein capsule element (A) is secured to the AM element and is made from a different material compared to that of said AM element and capsule element (B) is secured to the AM element and is made from a different material compared to that of said AM element.
Intermediate element which is designed to be arranged between a probe-pin carrier on the arm of a coordinate measuring machine and a probe pin , which is oriented in an inclined state in relation to the probe-pin carrier , wherein the intermediate element is formed with a single-piece main body with a probe-pin end and a machine end , wherein the machine end has a coupling element, which is designed to couple the intermediate element to a counterpart on the coordinate-measuring-machine arm, wherein the coupling element is a rotational coupling element, and wherein the rotational coupling element is configured in the form of a journal and has a rotational-coupling axis (1b2), and wherein the probe-pin end has an abutment surface (1a1), which is inclined in a fixed manner in relation to the rotational-coupling axis (1b2) of the coupling element and is provided with a positively locking and/or frictionally locking means which is designed to enter into positively locking and/or frictionally locking engagement in abutment with a fastening end of the probe pin , the intention being for the fastening end to be arranged on the abutment surface (1a1), and wherein the intermediate element has a planar surface , which is provided on the opposite side of the abutment surface (1a1) and is located parallel to the rotational-coupling axis (1b2). wherein the intermediate element is formed with a single-piece main body with a probe-pin end and a machine end , wherein the machine end has a coupling element, which is designed to couple the intermediate element to a counterpart on the coordinate-measuring-machine arm, wherein the coupling element is a rotational coupling element, and wherein the rotational coupling element is configured in the form of a journal and has a rotational-coupling axis (1b2), and wherein the probe-pin end has an abutment surface (1a1), which is inclined in a fixed manner in relation to the rotational-coupling axis (1b2) of the coupling element and is provided with a positively locking and/or frictionally locking means which is designed to enter into positively locking and/or frictionally locking engagement in abutment with a fastening end of the probe pin , the intention being for the fastening end to be arranged on the abutment surface (1a1), and wherein the intermediate element has a planar surface , which is provided on the opposite side of the abutment surface (1a1) and is located parallel to the rotational-coupling axis (1b2).
A floating structure, comprising a first plurality of tubes and a second plurality of tubes maintaining tubes of the first plurality of tubes longitudinally equidistant from and parallel to each other, the first plurality of tubes and the second plurality of tubes being related to each other and making up a grid-like structure, each tube of the first plurality of tubes showing an alignment of pairs of holes in their periphery, being foreseen holes centred and facing each other at either end of a line running transversally to the longitudinal axis of each tube , all pairs of holes on each tube being equidistant from each other and pairs of holes facing each other on the tubes of the first plurality of tubes respectively crossed by the corresponding tubes of the second plurality of tubes , portions of a same tube of said second plurality of tubes being respectively comprised between pairs of holes of the tube of the first plurality of tubes it crosses and being linked at their ends to the respective periphery of crossed pair of holes characterized in that said line running transversally to a longitudinal axis of each tube is parallel to a horizontal plane that divides the tube into two semi-cylindrical portions, and is on the upper semi-cylindrical portion of tubes such that the second plurality of tubes extend through the upper semi-cylindrical portion of the tubes of the first plurality of tubes .
An optical sensor comprising: light sources (311-315) configured to emit light; a substrate on which the light sources (311-315) are mounted, the substrate comprising holes (321-325) in regions on which the light sources (311-315) are mounted, a separate hole corresponding to each of the light sources (311-315); a first photodetector configured to receive a first light emitted from a front surface of each of the light sources (311-315), each of the front surfaces facing away from the substrate and the first light being reflected or scattered from an object (OBJ); and at least one second photodetector (341-345) configured to receive a second light emitted from a rear surface of each of the light sources (311-315), each of the rear surfaces facing towards the substrate and the second light passing through the holes (321-325) corresponding to the light sources (311-315). light sources (311-315) configured to emit light; a substrate on which the light sources (311-315) are mounted, the substrate comprising holes (321-325) in regions on which the light sources (311-315) are mounted, a separate hole corresponding to each of the light sources (311-315); a first photodetector configured to receive a first light emitted from a front surface of each of the light sources (311-315), each of the front surfaces facing away from the substrate and the first light being reflected or scattered from an object (OBJ); and at least one second photodetector (341-345) configured to receive a second light emitted from a rear surface of each of the light sources (311-315), each of the rear surfaces facing towards the substrate and the second light passing through the holes (321-325) corresponding to the light sources (311-315).
A gas sensor comprising a substrate , a recess or opening arranged in said substrate , a bridge extending over said recess or opening and being anchored in said substrate , wherein said bridge comprises at least a first and a second metal layer separated by at least one dielectric layer , in particular of silicon nitride and/or silicon oxide, and wherein said bridge forms a hotplate , a patch of sensing material, in particular of a metal oxide material, arranged on said hotplate , a heater located in said hotplate and formed by said first metal layer , electrodes located in said hotplate , formed at least in part by said second metal layer , and arranged for measuring an electrical property of said patch of sensing material, a temperature sensor arranged in said hotplate ; wherein said bridge comprises, in particular consists of, a central region forming said hotplate and two arms extending between said central region and said substrate ; wherein said gas sensor comprises at least two electrode leads extending between said electrodes and said substrate , wherein said electrode leads extend through a first one of said arms , at least two temperature sensor leads extending between said temperature sensor and said substrate , wherein said temperature sensor leads extend through a second one of said arms ; wherein said temperature sensor and both of said electrodes , are formed by the second metal layer ; and wherein said temperature sensor is separate from said heater . a substrate , a recess or opening arranged in said substrate , a bridge extending over said recess or opening and being anchored in said substrate , wherein said bridge comprises at least a first and a second metal layer separated by at least one dielectric layer , in particular of silicon nitride and/or silicon oxide, and wherein said bridge forms a hotplate , a patch of sensing material, in particular of a metal oxide material, arranged on said hotplate , a heater located in said hotplate and formed by said first metal layer , electrodes located in said hotplate , formed at least in part by said second metal layer , and arranged for measuring an electrical property of said patch of sensing material, a temperature sensor arranged in said hotplate ; wherein said bridge comprises, in particular consists of, a central region forming said hotplate and two arms extending between said central region and said substrate ; wherein said gas sensor comprises at least two electrode leads extending between said electrodes and said substrate , wherein said electrode leads extend through a first one of said arms , at least two temperature sensor leads extending between said temperature sensor and said substrate , wherein said temperature sensor leads extend through a second one of said arms ; wherein said temperature sensor and both of said electrodes , are formed by the second metal layer ; and wherein said temperature sensor is separate from said heater .
A fixation device comprising: a sleeve member including a first end , a second end , an exterior surface and an interior surface , wherein the sleeve member is substantially hollow between the first end and the second end ; and a filament including a first free end and a second free end and a length therebetween, wherein the sleeve member defines at least two openings positioned along the length of the exterior surface between the first end and the second end of the sleeve member , said at least two openings extend from the interior surface of the sleeve member through to the exterior surface of the sleeve member , characterized in that the filament is positioned relative to the sleeve member such that the free ends extend from the sleeve member through the first and second ends of the sleeve member , and at least a portion of the length of the filament is disposed inside the interior of the sleeve member from the first end to the first opening , at least a portion of the length of the filament being disposed outside the sleeve member from the first opening to the second opening , and at least a portion of the length of the filament being disposed inside the interior of the sleeve member from the second opening to the second end of the sleeve member . a sleeve member including a first end , a second end , an exterior surface and an interior surface , wherein the sleeve member is substantially hollow between the first end and the second end ; and a filament including a first free end and a second free end and a length therebetween, wherein the sleeve member defines at least two openings positioned along the length of the exterior surface between the first end and the second end of the sleeve member , said at least two openings extend from the interior surface of the sleeve member through to the exterior surface of the sleeve member , characterized in that the filament is positioned relative to the sleeve member such that the free ends extend from the sleeve member through the first and second ends of the sleeve member , and at least a portion of the length of the filament is disposed inside the interior of the sleeve member from the first end to the first opening , at least a portion of the length of the filament being disposed outside the sleeve member from the first opening to the second opening , and at least a portion of the length of the filament being disposed inside the interior of the sleeve member from the second opening to the second end of the sleeve member .
A method implemented at a terminal device, comprising: determining a first priority for a first type of user data and a second priority for control information according to a transmission resource situation; transmitting the first type of user data and the control information according to the determined first priority and the second priority; characterized in that , the transmission resource situation comprises whether a transmission resource is sufficient, and determining a first priority for a first type of user data and a second priority for control information according to a transmission resource situation comprises: determining the first priority for the first type of user data higher than the second priority for control information when the transmission resource is sufficient for the first type of user data; and determining the first priority for the first type of user data lower than the second priority for control information when the transmission resource is insufficient for the first type of user data. determining a first priority for a first type of user data and a second priority for control information according to a transmission resource situation; transmitting the first type of user data and the control information according to the determined first priority and the second priority; characterized in that , the transmission resource situation comprises whether a transmission resource is sufficient, and determining a first priority for a first type of user data and a second priority for control information according to a transmission resource situation comprises: determining the first priority for the first type of user data higher than the second priority for control information when the transmission resource is sufficient for the first type of user data; and
A trolley pole actuating mechanism comprising a trolley pole equipped with a collector head at top end thereof, a horizontal servo mechanism for driving the trolley pole to swing, a luffing servo mechanism for driving the trolley pole up or down, and an air-driving device for pushing out air; the horizontal servo mechanism and the luffing servo mechanism are both arranged at bottom end of the trolley pole and are connected to the trolley pole respectively by transmission, and the air-driving device is arranged near the top end of the trolley pole wherein the air-driving device comprises a first mounting base arranged near the top end of the trolley pole , and a plurality of fans arranged on the first mounting base .
Machining tool, in particular drilling tool, having a machining element that acts on a workpiece , and a connection for a manipulating device , in particular a robot, wherein the machining tool has a feed device , connected to the connection , for feeding the machining element by movement of the manipulating device connected to the connection , characterized in that the machining tool has a reinforcing device for the feed, in particular for the feed force, of the machining element , wherein the reinforcing device is assigned to the feed device , preferably integrated into the latter, and wherein the reinforcing device has a transmission which has a driving actuating element connected to the connection , and a driven actuating element connected to the machining element .
A method of packing a chromatography column, comprising: dispersing chromatographic media particles in an aqueous based slurry solution comprising at least 90% by weight water to form a slurry wherein the slurry comprises 0.1-10 parts by weight of surfactant based on 100 parts by weight of water; filling a chromatography column with the chromatographic media particles by introducing the slurry to the column; and applying a pressure to pack the chromatographic media particles in the chromatography column, wherein the pressure is applied and held substantially constant for a first period at a first pressure and is applied and held substantially constant for a second period, following the first period, at a second pressure higher than the first pressure, wherein the first pressure is in a range from 100 - 1500 bar; and the second pressure is in a range from 1500 to 6000 bar. dispersing chromatographic media particles in an aqueous based slurry solution comprising at least 90% by weight water to form a slurry wherein the slurry comprises 0.1-10 parts by weight of surfactant based on 100 parts by weight of water; filling a chromatography column with the chromatographic media particles by introducing the slurry to the column; and applying a pressure to pack the chromatographic media particles in the chromatography column, wherein the pressure is applied and held substantially constant for a first period at a first pressure and is applied and held substantially constant for a second period, following the first period, at a second pressure higher than the first pressure, wherein the first pressure is in a range from 100 - 1500 bar; and the second pressure is in a range from 1500 to 6000 bar.
An atomization assembly, comprising an e-liquid tank , an air admission assembly, and a ceramic module; wherein the air admission assembly comprises an air duct and a silicone seat ; the silicone seat is disposed on a bottom end of the e-liquid tank to seal the e-liquid tank ; the air duct is disposed in the e-liquid tank and passes through the silicone seat ; characterized in that: the air admission assembly further comprises an air vent , the air vent being disposed on the e-liquid tank ; the air duct communicates with the air vent ; the ceramic module comprises a U-shaped ceramic core and a strip of inert cotton ; and the strip of inert cotton is disposed in the U-shaped ceramic core to absorb an e-liquid condensate. the air admission assembly further comprises an air vent , the air vent being disposed on the e-liquid tank ; the air duct communicates with the air vent ; the ceramic module comprises a U-shaped ceramic core and a strip of inert cotton ; and the strip of inert cotton is disposed in the U-shaped ceramic core to absorb an e-liquid condensate.
Aerosol-generating device , comprising an induction heater for heating an aerosol-forming substrate, the induction heater comprising an induction coil and a heating element , wherein the heating element is arrangeable within the induction coil , the induction coil comprising a side opening along the longitudinal length of the induction coil , wherein the side opening is configured for enabling access to the heating element , wherein the aerosol-generating device further comprises a housing , wherein the induction coil is arranged within the housing, and wherein the housing comprises a side opening which corresponds to the side opening of the induction coil within the housing. an induction heater for heating an aerosol-forming substrate, the induction heater comprising an induction coil and a heating element , wherein the heating element is arrangeable within the induction coil , the induction coil comprising a side opening along the longitudinal length of the induction coil , wherein the side opening is configured for enabling access to the heating element , wherein the aerosol-generating device further comprises a housing , wherein the induction coil is arranged within the housing, and wherein the housing comprises a side opening which corresponds to the side opening of the induction coil within the housing.
Method for operating a hearing device , - wherein the hearing device has a signal processing , which has at least one adjustable parameter (P), which has a given setting (E) at a given time, - wherein the parameter (P) is set depending on the situation by selecting a setting (E) for the parameter (P) depending on a current environmental situation and by means of a learning machine , - wherein a current setting (E) of the parameter (P) can be rated by feedback (R) from a user of the hearing device , - wherein in a first training the learning machine is passively trained by negative feedback (R), by rating a feedback (R) of the user as a dissatisfaction with the current setting (E) and by assuming a satisfaction of the user with the current setting (E) as long as no feedback (R) is received, characterized in that in a second training, the learning machine is additionally trained by changing the current setting (E) independently of any feedback (R) from the user and despite an assumed satisfaction with the current setting (E), so that a different setting (E) is provided to the user, which can then be rated by a feedback (R). - wherein the hearing device has a signal processing , which has at least one adjustable parameter (P), which has a given setting (E) at a given time, - wherein the parameter (P) is set depending on the situation by selecting a setting (E) for the parameter (P) depending on a current environmental situation and by means of a learning machine , - wherein a current setting (E) of the parameter (P) can be rated by feedback (R) from a user of the hearing device , - wherein in a first training the learning machine is passively trained by negative feedback (R), by rating a feedback (R) of the user as a dissatisfaction with the current setting (E) and by assuming a satisfaction of the user with the current setting (E) as long as no feedback (R) is received,
A receiver comprising: a receive chain configured to receive a multi-carrier signal; a controller configured to: determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate. a receive chain configured to receive a multi-carrier signal; a controller configured to: determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate. determine whether a signal quality of the received multi-carrier signal is better than a predetermined signal quality, wherein the predetermined signal quality is selected to ensure that a probability of error free decoding of the received signal is greater than a predetermined threshold; and after determining that the signal quality of the received multi-carrier signal is better than the predetermined signal quality, select subcarriers of the multi-carrier signal not to perform receive signal processing based on a function of a selected coding rate.