mhurhangee/patent-ind-claim-en huggingface dataset:
Dental implant for fitting in an intraosseous zone of a dental socket comprising: a plurality of raised platforms with a flat top such that said tops form an external surface of the implant for contacting with the intraosseous zone and the spaces between and below said platforms form a network of channels for revascularisation fluid flow ; wherein the network of channels is a mesh of interconnected channels; wherein the platforms have a 'T' shaped cross-section and wherein the platforms have a central elevation crowned by a flat top comprising two tabs extending in two opposite directions. a plurality of raised platforms with a flat top such that said tops form an external surface of the implant for contacting with the intraosseous zone and the spaces between and below said platforms form a network of channels for revascularisation fluid flow ; wherein the network of channels is a mesh of interconnected channels; wherein the platforms have a 'T' shaped cross-section and wherein the platforms have a central elevation crowned by a flat top comprising two tabs extending in two opposite directions.
A gripping system comprising: a robotic hand configured to grip a workpiece (W); a robot configured to support the robotic hand and to change at least one hand configuration selected from a group comprising a position of the robotic hand and a posture of the robotic hand ; an image sensor configured to acquire image information from a viewpoint interlocked with the at least one hand configuration; characterized by an operation module configured to derive an operation command of the robot based on - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand , and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, wherein the command model is constructed by machine learning performed by a learning device according to claim 14; and a robot control module configured to operate the robot based on the operation command of the robot derived by the operation module . a robotic hand configured to grip a workpiece (W); a robot configured to support the robotic hand and to change at least one hand configuration selected from a group comprising a position of the robotic hand and a posture of the robotic hand ; an image sensor configured to acquire image information from a viewpoint interlocked with the at least one hand configuration; characterized by an operation module configured to derive an operation command of the robot based on - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand , and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand , and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, wherein the command model is constructed by machine learning performed by a learning device according to claim 14; and a robot control module configured to operate the robot based on the operation command of the robot derived by the operation module .
A method for producing a helical, electrically conducting body , in which first a helical pattern is produced as a lost mold made of a pattern material that can be liquefied or evaporated under the action of heat, and thereafter is covered with a preferably electrically insulating layer and embedded in foundry sand, thereafter a metallic casting material being poured into the lost mold, displacing the pattern material, and bonding with the insulating layer, and the cast body being removed, together with the insulating layer adhering thereto, from the foundry sand, the casting material and the material of the insulating layer being matched to one another such that the insulating material adheres to the cast part, and the insulating layer being provided with a composition that qualifies it for the later use as the insulating layer of the helical, electrically conducting body.
A mounting bracket assembly comprising: a mounting bracket including a first attachable bracket piece and a second attachable bracket piece , each attachable bracket piece having a top member and a bottom member connected to the top member, the mounting bracket defining a beam insertion aperture between the top members and the bottom members; wherein it further comprises a first clamp attached to the top member of the first attachable bracket piece by a first fastener ; a second clamp attached to the top member of the second attachable bracket piece by a second fastener ; and a third fastener securing the bottom member of the first attachable bracket piece to the bottom member of the second attachable bracket piece, wherein the mounting bracket assembly further comprises a first integral grounding device located adjacent the top member of the first attachable bracket piece or adjacent the top member of the second attachable bracket piece , the first integral grounding device being configured to electrically bond a frame of an electricity generating device to the mounting bracket assembly. a mounting bracket including a first attachable bracket piece and a second attachable bracket piece , each attachable bracket piece having a top member and a bottom member connected to the top member, the mounting bracket defining a beam insertion aperture between the top members and the bottom members; wherein it further comprises a first clamp attached to the top member of the first attachable bracket piece by a first fastener ; a second clamp attached to the top member of the second attachable bracket piece by a second fastener ; and a third fastener securing the bottom member of the first attachable bracket piece to the bottom member of the second attachable bracket piece, wherein the mounting bracket assembly further comprises a first integral grounding device located adjacent the top member of the first attachable bracket piece or adjacent the top member of the second attachable bracket piece , the first integral grounding device being configured to electrically bond a frame of an electricity generating device to the mounting bracket assembly.
Hydraulic assembly for generating brake pressure for a hydraulic motor vehicle brake system, comprising a main body , comprising a cavity which is arranged in the main body and which has at least a first bore portion which has a defined target diameter (Ds) and in which there is arranged a cylinder piston which is displaceable in the axial direction and which, in the cavity , delimits at least one pressure chamber which is filled with a hydraulic pressure medium and which serves for generating brake pressure in a brake circuit , comprising at least one first and one second sealing element which serve for sealing off the cylinder piston and which are arranged axially spaced apart from one another, characterized in that the material of the main body has in an edge layer of an inner wall of the cavity in the bore portion a material structure which has been hardened by deformation.
Transportation unit having at least one installation , having: a simulation system having an interface , via which current status data (AZD) relating to the installation can be received, and a computing unit , which is designed to acquire simulated status data (SZD) that is representative of a status of at least one part of the installation , on the basis of simulation data (SD1) and the current status data (AZD), wherein the simulation system comprises a memory unit , in which at least one simulation program that can be executed by the computing unit is stored, wherein the simulation data (SD1) is provided as a component of the simulation program. a simulation system having an interface , via which current status data (AZD) relating to the installation can be received, and a computing unit , which is designed to acquire simulated status data (SZD) that is representative of a status of at least one part of the installation , on the basis of simulation data (SD1) and the current status data (AZD), wherein the simulation system comprises a memory unit , in which at least one simulation program that can be executed by the computing unit is stored, wherein the simulation data (SD1) is provided as a component of the simulation program.
A method carried out at a network entity, comprising: determining a number of subscribers to a service in a wireless communication network; comparing the number of subscribers to a predetermined threshold value; if the service is currently being provided in a broadcast or multicast mode, and if the number of subscribers is below the predetermined threshold value, initiating a transition to a unicast mode by sending a modified content designator to one or more of the subscribers in response to a request for content of the service from the one or more subscribers to the service ; and if the service is currently being provided in a unicast mode, and if the number of subscribers exceeds the predetermined threshold value, initiating a transition to a broadcast or multicast mode by sending a modified content designator via the unicast mode to the one or more subscribers in response to the request for content of the service from the one or more subscribers to the service; wherein sending the modified content designator comprises adjusting at least one protocol element or at least one header of a signal carrying the service to the one or more subscribers, wherein the at least one protocol element or at least one header is a hyper-text transport protocol, http, element, and wherein the method further comprises sending to the one or more subscribers an http-REDIRECT element to trigger a service discovery procedure by the one or more subscribers. determining a number of subscribers to a service in a wireless communication network; comparing the number of subscribers to a predetermined threshold value; if the service is currently being provided in a broadcast or multicast mode, and if the number of subscribers is below the predetermined threshold value, initiating a transition to a unicast mode by sending a modified content designator to one or more of the subscribers in response to a request for content of the service from the one or more subscribers to the service ; and if the service is currently being provided in a unicast mode, and if the number of subscribers exceeds the predetermined threshold value, initiating a transition to a broadcast or multicast mode by sending a modified content designator via the unicast mode to the one or more subscribers in response to the request for content of the service from the one or more subscribers to the service; wherein sending the modified content designator comprises adjusting at least one protocol element or at least one header of a signal carrying the service to the one or more subscribers, wherein the at least one protocol element or at least one header is a hyper-text transport protocol, http, element, and wherein the method further comprises sending to the one or more subscribers an http-REDIRECT element to trigger a service discovery procedure by the one or more subscribers.
A method comprising: dividing, by one or more processors, received audio signals into a series of buffers in time domain, each buffer including samples of the audio signals; transforming each buffer into frequency domain; for each buffer, determining a respective energy envelope, a respective sibilance energy level, and a respective zero-crossing rate; applying gain reduction to a sibilance frequency band of a buffer among the buffers in response to determining that: a ratio between a sibilance energy level of the buffer and an energy envelope of an immediate previous buffer satisfies a first threshold; and a zero-crossing rate of the buffer satisfies a second threshold; and providing the audio signals, with gain reduced in the sibilance frequency band, to a consuming device for storage, streaming or playback. dividing, by one or more processors, received audio signals into a series of buffers in time domain, each buffer including samples of the audio signals; transforming each buffer into frequency domain; for each buffer, determining a respective energy envelope, a respective sibilance energy level, and a respective zero-crossing rate; applying gain reduction to a sibilance frequency band of a buffer among the buffers in response to determining that: a ratio between a sibilance energy level of the buffer and an energy envelope of an immediate previous buffer satisfies a first threshold; and a zero-crossing rate of the buffer satisfies a second threshold; and a ratio between a sibilance energy level of the buffer and an energy envelope of an immediate previous buffer satisfies a first threshold; and a zero-crossing rate of the buffer satisfies a second threshold; and providing the audio signals, with gain reduced in the sibilance frequency band, to a consuming device for storage, streaming or playback.
A cover assembly for a spa having a base and a shell supported by the base, said cover assembly comprising: a cover member selectively movable between a covered position and an uncovered position; and a lifting assembly having a first lifting mechanism rotatably coupled to said cover member and to said base, said first lifting mechanism including a first lifting arm extending between said base and said cover member and being pivotally coupled at a first end to said base at a first pivot point and at a second end to said cover member at a second pivot point, and a second lifting arm being pivotally coupled to said first lifting arm and said cover member at said second pivot point; wherein said first pivot point and said second pivot point provide two axes of rotation for said cover member relative to said base, wherein said first lifting arm has a first depending guide plate and said second lifting arm has a second depending guide plate , wherein the cooperation between said first depending guide plate and said second depending guide plate guides the movement of the cover member ; and wherein said cover member is rotatable about said first pivot point and said second pivot point between said covered position, in which said cover member rests atop said shell , and said uncovered position, in which said cover member is oriented generally vertically adjacent a sidewall of said base. a cover member selectively movable between a covered position and an uncovered position; and a lifting assembly having a first lifting mechanism rotatably coupled to said cover member and to said base, said first lifting mechanism including a first lifting arm extending between said base and said cover member and being pivotally coupled at a first end to said base at a first pivot point and at a second end to said cover member at a second pivot point, and a second lifting arm being pivotally coupled to said first lifting arm and said cover member at said second pivot point; wherein said first pivot point and said second pivot point provide two axes of rotation for said cover member relative to said base, wherein said first lifting arm has a first depending guide plate and said second lifting arm has a second depending guide plate , wherein the cooperation between said first depending guide plate and said second depending guide plate guides the movement of the cover member ; and wherein said cover member is rotatable about said first pivot point and said second pivot point between said covered position, in which said cover member rests atop said shell , and said uncovered position, in which said cover member is oriented generally vertically adjacent a sidewall of said base.
An actuator operable to move a valve stem between an opened position and a closed position, the actuator comprising: a cylinder including an open side and a close side , wherein the cylinder is intended to be coupled to the valve stem ; a first pump connected to the cylinder and operable to deliver a first high-pressure fluid to the open side of the cylinder to move the valve stem toward the opened position; and a second pump separate from the first pump , the second pump connected to the cylinder and operable to deliver a second high-pressure fluid to the close side of the cylinder to move the valve stem toward the closed position, characterized in that the first pump draws a first supply of fluid from the close side of the cylinder to deliver the first high-pressure fluid to the open side , and the second pump draws a second supply of fluid from the open side of the cylinder to deliver the second high-pressure fluid to the close side . a cylinder including an open side and a close side , wherein the cylinder is intended to be coupled to the valve stem ; a first pump connected to the cylinder and operable to deliver a first high-pressure fluid to the open side of the cylinder to move the valve stem toward the opened position; and a second pump separate from the first pump , the second pump connected to the cylinder and operable to deliver a second high-pressure fluid to the close side of the cylinder to move the valve stem toward the closed position, characterized in that the first pump draws a first supply of fluid from the close side of the cylinder to deliver the first high-pressure fluid to the open side , and the second pump draws a second supply of fluid from the open side of the cylinder to deliver the second high-pressure fluid to the close side .
A lithotripter tip for use with a lithotripter probe, wherein the lithotripter tip is at least partially surrounded by a water-tight flexible encapsulating member encapsulating a liquid such that the lithotripter tip is positioned in the liquid encapsulated by the water-tight encapsulating member, and comprises: a first electrode positioned at a distal end of the lithotripter tip; and a second electrode , an end of which is coaxially aligned with an end of the first electrode; wherein the first and second electrodes are positioned on the lithotripter tip such that an electric arc between the ends of the first and second electrodes causes a shockwave that is annular within the liquid to radiate radially from the lithotripter tip, wherein the lithotripter tip and the water-tight flexible encapsulating member are configured to be threaded through a human vein or artery of a patient such that the water-tight flexible encapsulating member is positioned against the interior of the human vein, artery, or lumen of a body organ. a first electrode positioned at a distal end of the lithotripter tip; and a second electrode , an end of which is coaxially aligned with an end of the first electrode; wherein the first and second electrodes are positioned on the lithotripter tip such that an electric arc between the ends of the first and second electrodes causes a shockwave that is annular within the liquid to radiate radially from the lithotripter tip, wherein the lithotripter tip and the water-tight flexible encapsulating member are configured to be threaded through a human vein or artery of a patient such that the water-tight flexible encapsulating member is positioned against the interior of the human vein, artery, or lumen of a body organ.
A battery module, characterized in comprising: a plurality of battery units connected in series; at least two electrode output connecting pieces each disposed at an output end of the battery module; a plurality of bridging busbars , each of plurality of bridging busbars connecting two battery units spaced by another battery unit or more battery units among the plurality of battery units , wherein the plurality of bridging busbars is provided with a protective sleeve made of an insulating material to prevent the plurality of bridging busbars from contacting corresponding battery units bridged by the plurality of bridging busbars ; and an adjacent busbar connecting two adjacent battery units among the plurality of battery units , wherein an electrical connection path is formed in the battery module by the at least two electrode output connecting pieces , the bridging busbars and the adjacent busbar . a plurality of battery units connected in series; at least two electrode output connecting pieces each disposed at an output end of the battery module; a plurality of bridging busbars , each of plurality of bridging busbars connecting two battery units spaced by another battery unit or more battery units among the plurality of battery units , wherein the plurality of bridging busbars is provided with a protective sleeve made of an insulating material to prevent the plurality of bridging busbars from contacting corresponding battery units bridged by the plurality of bridging busbars ; and an adjacent busbar connecting two adjacent battery units among the plurality of battery units , wherein an electrical connection path is formed in the battery module by the at least two electrode output connecting pieces , the bridging busbars and the adjacent busbar .
A method for detecting an aggregate form of an aggregate-forming polypeptide in a biosample, the method comprising the steps of: (a) spiking, with a biosample to be analyzed, (i) a monomeric or multimeric form of the aggregate-forming polypeptide, (ii) a hydrophobic deleted derivative of the aggregate-forming polypeptide, or (iii) a monomeric or multimeric form of the aggregate-forming polypeptide and a hydrophobic deleted derivative of the aggregate-forming polypeptide; (b) additionally forming an aggregate form of the aggregate-forming polypeptide by incubating a product of step (a) at 25-40°C for 2-6 days; (c) contacting, with a product of step (b), a binder-label in which a signal generation label is conjugated to a binder binding to the aggregate form of the aggregate-forming polypeptide; and (d) detecting a signal generated from the binder-label bound to the aggregate form of the aggregate-forming polypeptide, wherein the incubating in step (b) is carried out for a sufficient incubation time for multimerization of the spiked (i), (ii), or (iii) by the biosample, wherein the biosample is plasma, and wherein the biosample for performing the multimerization of the spiked (i), (ii), or (iii) is a biosample of a human being having a disease involving the multimeric form of the aggregate-forming polypeptide. (a) spiking, with a biosample to be analyzed, (i) a monomeric or multimeric form of the aggregate-forming polypeptide, (ii) a hydrophobic deleted derivative of the aggregate-forming polypeptide, or (iii) a monomeric or multimeric form of the aggregate-forming polypeptide and a hydrophobic deleted derivative of the aggregate-forming polypeptide; (b) additionally forming an aggregate form of the aggregate-forming polypeptide by incubating a product of step (a) at 25-40°C for 2-6 days; (c) contacting, with a product of step (b), a binder-label in which a signal generation label is conjugated to a binder binding to the aggregate form of the aggregate-forming polypeptide; and (d) detecting a signal generated from the binder-label bound to the aggregate form of the aggregate-forming polypeptide, wherein the incubating in step (b) is carried out for a sufficient incubation time for multimerization of the spiked (i), (ii), or (iii) by the biosample, wherein the biosample is plasma, and wherein the biosample for performing the multimerization of the spiked (i), (ii), or (iii) is a biosample of a human being having a disease involving the multimeric form of the aggregate-forming polypeptide.