mhurhangee/patent-ind-claim-en huggingface dataset:
A cartridge configured to be mounted on a tape printer , the cartridge comprising: a ribbon roll around which an ink ribbon is wound; and a cartridge case configured to accommodate a tape roll around which a tape is wound and that accommodates the ribbon roll , characterised in that the cartridge case includes a third case portion , a first case portion that constitutes a tape roll accommodating portion accommodating the tape roll between the first case portion and the third case portion , and a second case portion that is separated from the first case portion and accommodates the ribbon roll between the second case portion and the third case portion , wherein the first case portion is configured to open and close the tape roll accommodating portion . a ribbon roll around which an ink ribbon is wound; and a cartridge case configured to accommodate a tape roll around which a tape is wound and that accommodates the ribbon roll , characterised in that the cartridge case includes a third case portion , a first case portion that constitutes a tape roll accommodating portion accommodating the tape roll between the first case portion and the third case portion , and a second case portion that is separated from the first case portion and accommodates the ribbon roll between the second case portion and the third case portion , wherein the first case portion is configured to open and close the tape roll accommodating portion .
Method for masking unwanted background noises occurring during operation of a vehicle by means of synthetic noises , wherein the synthetic noise is generated from an unmodulated synthetic noise (3.1) for adjusting a desired sound characteristic by multiplication with at least one filter and/or amplifier dependent on a vehicle parameter , wherein a pitch of all acoustic signals of which the modulated synthetic noise (3.3) is composed is kept constant during an output of the modulated synthetic noise (3.3), characterized in that the unmodulated synthetic noise (3.1) is formed as 1/f noise and is pre-modulated by means of at least one static filter before modulation by the at least one filter and/or amplifier dependent on the vehicle parameter , wherein after modulation by the at least one adaptive filter and/or an amplifier , the synthetic noise experiences a feedback delay, in particular with an adjustable attenuation, the transfer function of which corresponds to a comb filter. the unmodulated synthetic noise (3.1) is formed as 1/f noise and is pre-modulated by means of at least one static filter before modulation by the at least one filter and/or amplifier dependent on the vehicle parameter , wherein after modulation by the at least one adaptive filter and/or an amplifier , the synthetic noise experiences a feedback delay, in particular with an adjustable attenuation, the transfer function of which corresponds to a comb filter.
A computer-implemented method for using a verification substitute header file in a verification of an application that uses Protocol Buffers, Protobuf, for data communication, comprising: obtaining one or more Protobuf message types from a Protobuf definition file, wherein the Protobuf definition file is compatible with a Protobuf specification, the Protobuf specification defines a first set of one or more functions, the functions of the first set invoke a set of Protobuf libraries; generating the verification substitute header file based on the Protobuf message types, comprising, for each field in a Protobuf message type generating one or more C++ classes based on the Protobuf message types and generating a member field as well as a member function to access the member field in the C++ class corresponding to the Protobuf message type; saving the C++ classes, including the data members and function members in the verification substitute header file, the verification substitute header file defining a second set of one or more functions according to a standard C/C++ programming language, wherein the functions of the second set invoke a set of standard C/C++ libraries; inserting one or more verification stubs to the verification substitute header file, wherein the verification stubs comprise one or more preconditions associated with at least one member function, one or more postconditions associated with at least one member function, or a combination thereof; and performing the verification of the application including the verification substitute header file based on the set of standard C/C++ libraries without having to verify the set of Protobuf libraries. obtaining one or more Protobuf message types from a Protobuf definition file, wherein the Protobuf definition file is compatible with a Protobuf specification, the Protobuf specification defines a first set of one or more functions, the functions of the first set invoke a set of Protobuf libraries; generating the verification substitute header file based on the Protobuf message types, comprising, for each field in a Protobuf message type generating one or more C++ classes based on the Protobuf message types and generating a member field as well as a member function to access the member field in the C++ class corresponding to the Protobuf message type; saving the C++ classes, including the data members and function members in the verification substitute header file, the verification substitute header file defining a second set of one or more functions according to a standard C/C++ programming language, wherein the functions of the second set invoke a set of standard C/C++ libraries; inserting one or more verification stubs to the verification substitute header file, wherein the verification stubs comprise one or more preconditions associated with at least one member function, one or more postconditions associated with at least one member function, or a combination thereof; and performing the verification of the application including the verification substitute header file based on the set of standard C/C++ libraries without having to verify the set of Protobuf libraries.
A method for mapping at least part of a structure in an image of at least part of a body of a subject, the method comprising: determining a first weighted centroid of a first area surrounding a first point in the image of the at least part of the body of the subject; determining a second weighted centroid of a second area surrounding the first weighted centroid; and mapping at least part of a first trace of the structure in the image based on a position of the second weighted centroid with respect to a position of the first weighted centroid; determining a fourth weighted centroid of a fourth area surrounding a second point in the image, wherein the second point is adjacent to the first point; determining a fifth weighted centroid of a fifth area surrounding the fourth weighted centroid; mapping at least part of a second trace of the structure in the image based on a position of the fourth weighted centroid with respect to a position of the fifth weighted centroid; and comparing the first trace and the second trace to identify at least one ridgeline of the structure in the image, wherein the ridgeline is a border between regions of the structure or between parts of the structure that diverge. determining a first weighted centroid of a first area surrounding a first point in the image of the at least part of the body of the subject; determining a second weighted centroid of a second area surrounding the first weighted centroid; and mapping at least part of a first trace of the structure in the image based on a position of the second weighted centroid with respect to a position of the first weighted centroid; determining a fourth weighted centroid of a fourth area surrounding a second point in the image, wherein the second point is adjacent to the first point; determining a fifth weighted centroid of a fifth area surrounding the fourth weighted centroid; mapping at least part of a second trace of the structure in the image based on a position of the fourth weighted centroid with respect to a position of the fifth weighted centroid; and comparing the first trace and the second trace to identify at least one ridgeline of the structure in the image, wherein the ridgeline is a border between regions of the structure or between parts of the structure that diverge.
A radiant heater comprising: a radiant heating element in the form of a tube having first and second ends, wherein the tube consists of first and second substantially straight sections, generally parallel to one another, connected by a U-shaped tube; a burner communicating with the first end of the tube for delivering combustion gases into the first straight section ; and a redirecting element which is disposed in the first straight section so as to redirect, in use, at least a portion of the combustion gases flowing within the upper half of the tube towards the lower half of the tube ; wherein the radiant heater comprises an extractor communicating with the second end of the tube for extracting gases from the second straight: section ; and wherein said redirecting element comprises at least one pair of longitudinally extending helical vanes , each vane in each pair being arranged diametrically opposite one another, the first vane of the or each pair having a surface that extends downwards from the upper half of the tube into the lower half of the tube, and the second vane of the or each pair having a surface that extends upwards from the lower half of the tube into the upper half of the tube, wherein the or each pair of vanes are supported on a longitudinal post that extends centrally within the tube; and wherein the fore end of the post has a cone arranged in use to urge gases being drawn towards the redirecting element outwards towards the vanes . a radiant heating element in the form of a tube having first and second ends, wherein the tube consists of first and second substantially straight sections, generally parallel to one another, connected by a U-shaped tube; a burner communicating with the first end of the tube for delivering combustion gases into the first straight section ; and a redirecting element which is disposed in the first straight section so as to redirect, in use, at least a portion of the combustion gases flowing within the upper half of the tube towards the lower half of the tube ; wherein the radiant heater comprises an extractor communicating with the second end of the tube for extracting gases from the second straight: section ; and wherein said redirecting element comprises at least one pair of longitudinally extending helical vanes , each vane in each pair being arranged diametrically opposite one another, the first vane of the or each pair having a surface that extends downwards from the upper half of the tube into the lower half of the tube, and the second vane of the or each pair having a surface that extends upwards from the lower half of the tube into the upper half of the tube, wherein the or each pair of vanes are supported on a longitudinal post that extends centrally within the tube; and wherein the fore end of the post has a cone arranged in use to urge gases being drawn towards the redirecting element outwards towards the vanes .
A system for tracking and locating wireless network devices, the system comprising: a processor; and a memory communicatively coupled to the processor when the system is operational, the memory bearing processor instructions that, when executed on the processor, cause the system to at least: receive and process one or more signals received at a wireless network device from one or more wireless network nodes; determine the amplitude and phase vs. frequency dependency of said one or more signals; determine the absolute phase value(s) for one or more frequencies obtained from at least one of Round Trip Time, RTT, Time of Arrival, TOA, and time-stamping measurements; use the absolute phase value to reduce ambiguity in time-of-flight determinations in ranging of the wireless network device and the one or more wireless network nodes; receive time synchronization offsets associated with the one or more wireless network nodes, wherein the offsets are indicative of time delays between signal transmissions from the one or more wireless network nodes; and use the ranges and the time synchronization offsets to obtain a location of the network wireless device. a processor; and a memory communicatively coupled to the processor when the system is operational, the memory bearing processor instructions that, when executed on the processor, cause the system to at least: receive and process one or more signals received at a wireless network device from one or more wireless network nodes; determine the amplitude and phase vs. frequency dependency of said one or more signals; determine the absolute phase value(s) for one or more frequencies obtained from at least one of Round Trip Time, RTT, Time of Arrival, TOA, and time-stamping measurements; use the absolute phase value to reduce ambiguity in time-of-flight determinations in ranging of the wireless network device and the one or more wireless network nodes; receive time synchronization offsets associated with the one or more wireless network nodes, wherein the offsets are indicative of time delays between signal transmissions from the one or more wireless network nodes; and use the ranges and the time synchronization offsets to obtain a location of the network wireless device. receive and process one or more signals received at a wireless network device from one or more wireless network nodes; determine the amplitude and phase vs. frequency dependency of said one or more signals; determine the absolute phase value(s) for one or more frequencies obtained from at least one of Round Trip Time, RTT, Time of Arrival, TOA, and time-stamping measurements; use the absolute phase value to reduce ambiguity in time-of-flight determinations in ranging of the wireless network device and the one or more wireless network nodes; receive time synchronization offsets associated with the one or more wireless network nodes, wherein the offsets are indicative of time delays between signal transmissions from the one or more wireless network nodes; and use the ranges and the time synchronization offsets to obtain a location of the network wireless device.
A load balancing method, comprising: sending , by a terminal device, a first request message to a load balancing device, wherein the first request message is used to request to-be-transmitted data and an internet protocol, IP, address of a content delivery network, CDN, server that may provide the to-be-transmitted data; selecting, by the load balancing device, for the terminal device based on a load balancing policy, a CDN that may serve the terminal; sending, by the load balancing device, the first request message to the selected CDN server by using an IP tunnel; receiving , by the terminal device, a first response message sent by the CDN server, wherein the first response message comprises a length of the to-be-transmitted data and the IP address of the CDN server, and a source IP address of the first response message is an IP address of the load balancing device; and sending, by the terminal device, an acknowledgement, ACK, packet of the first response message to the load balancing device, wherein the IP destination address of the ACK packet is the IP address of the load balancing device, forwarding, by the load balancing device, the ACK packet to the selected CDN server by using the IP tunnel; when the terminal device determines that the length of the to-be-transmitted data is greater than or equal to a preset threshold, establishing , by the terminal device, a connection to the CDN server based on the IP address of the CDN server, receiving, by the terminal device, subsequent content of the to-be-transmitted data by using the connection with the CDN server. sending , by a terminal device, a first request message to a load balancing device, wherein the first request message is used to request to-be-transmitted data and an internet protocol, IP, address of a content delivery network, CDN, server that may provide the to-be-transmitted data; selecting, by the load balancing device, for the terminal device based on a load balancing policy, a CDN that may serve the terminal; sending, by the load balancing device, the first request message to the selected CDN server by using an IP tunnel; receiving , by the terminal device, a first response message sent by the CDN server, wherein the first response message comprises a length of the to-be-transmitted data and the IP address of the CDN server, and a source IP address of the first response message is an IP address of the load balancing device; and sending, by the terminal device, an acknowledgement, ACK, packet of the first response message to the load balancing device, wherein the IP destination address of the ACK packet is the IP address of the load balancing device, forwarding, by the load balancing device, the ACK packet to the selected CDN server by using the IP tunnel; when the terminal device determines that the length of the to-be-transmitted data is greater than or equal to a preset threshold, establishing , by the terminal device, a connection to the CDN server based on the IP address of the CDN server, receiving, by the terminal device, subsequent content of the to-be-transmitted data by using the connection with the CDN server.
A method comprising: providing a primary cell by a first node for a user equipment operating in dual-connectivity with the first node and a second node; and characterised by : prior to a loss of radio link between the primary cell and the user equipment , configuring the user equipment to send a request to a primary secondary cell provided by the second node requesting that the primary secondary cell provide the functionality of a primary cell for the user equipment when a radio link between the user equipment and the primary cell is lost.
A system for preventing medical mistakes, the system comprising: a machine learning medical procedure server that is configured to generate one or more machine learning medical procedure models using, at least, medical procedure data captured during medical procedures performed at a plurality of different medical procedure systems (140, 140-N); and a medical procedure system (140, 140-N, 240) communicably coupled with the machine learning medical procedure server , wherein the medical procedure system is configured to receive a selected machine learning medical procedure model from the machine learning medical procedure server based on patient-specific information and a specification of a medical procedure to be performed, and to utilize the selected machine learning medical procedure model during the performed medical procedure to control one or more operations of the medical procedure system (140, 140-N, 240). a machine learning medical procedure server that is configured to generate one or more machine learning medical procedure models using, at least, medical procedure data captured during medical procedures performed at a plurality of different medical procedure systems (140, 140-N); and a medical procedure system (140, 140-N, 240) communicably coupled with the machine learning medical procedure server , wherein the medical procedure system is configured to receive a selected machine learning medical procedure model from the machine learning medical procedure server based on patient-specific information and a specification of a medical procedure to be performed, and to utilize the selected machine learning medical procedure model during the performed medical procedure to control one or more operations of the medical procedure system (140, 140-N, 240).
An engine equipped with a turbo supercharger comprising: a multi-cylinder engine body ; an exhaust manifold coupled to the engine body ; a turbo supercharger including a turbine chamber to which exhaust air is supplied from the exhaust manifold , a turbine housing demarcating the turbine chamber and a supply path of the exhaust air, and a turbine insulator covering the turbine housing; and a manifold insulator covering at least the upper surface of the exhaust manifold and the side surface of the exhaust manifold on the turbo supercharger side, characterized in that the exhaust manifold has a flange having a communication opening of an exhaust path with respect to the turbo supercharger and joined to the turbine housing , wherein the manifold insulator has a cut-away section exposing a joining surface of the flange , and an opening (G2) caused by having the interval between the cut-away edge of the cut-away section and the outer peripheral edge of the flange be relatively wider in a predetermined position than in other positions, and wherein the opening (G2) is opened toward a space (S2) between the turbine housing and the turbine insulator . a multi-cylinder engine body ; an exhaust manifold coupled to the engine body ; a turbo supercharger including a turbine chamber to which exhaust air is supplied from the exhaust manifold , a turbine housing demarcating the turbine chamber and a supply path of the exhaust air, and a turbine insulator covering the turbine housing; and a manifold insulator covering at least the upper surface of the exhaust manifold and the side surface of the exhaust manifold on the turbo supercharger side, characterized in that the exhaust manifold has a flange having a communication opening of an exhaust path with respect to the turbo supercharger and joined to the turbine housing , wherein the manifold insulator has a cut-away section exposing a joining surface of the flange , and an opening (G2) caused by having the interval between the cut-away edge of the cut-away section and the outer peripheral edge of the flange be relatively wider in a predetermined position than in other positions, and wherein the opening (G2) is opened toward a space (S2) between the turbine housing and the turbine insulator .
Clock oscillator comprising a structure or/and a frame , and a plurality of separate temporally and geometrically offset resonators, and each comprising at least one inertial mass returned to said structure or to said frame by an elastic return means , said clock oscillator comprising coupling means arranged to allow the interaction of said resonators, said coupling means comprising a wheel set subjected to a drive torque by motor means arranged such that they drive said wheel set in a rotational movement and which comprise drive and guide means arranged such that they drive and guide a single control means , which is articulated about a first control axis with a plurality of transmission means , each articulated about a second hinge axis, remote from said control means , with one said inertial mass of one said resonator, said resonators and said wheel set being arranged such that said second hinge axes of any two of said resonators and said first control axis of said control means are never coplanar, characterised in that said resonators are rotating or angular resonators, the centres of mass whereof remain, during the normal oscillations of said resonators, in immediate proximity, at a distance of less than several tens of micrometres, to the centres of rotation of said resonators.
A multiple substrate with a ceramic plate or ceramic layer and at least one metal layer fastened flat to at least one surface side of the ceramic layer , the multiple substrate forming at least two individual substrates which adjoin one another and are integrally connected to one another and which are delimited from one another by at least one intersection line running between the individual substrates , wherein the individual substrates each have at least one countersink at at least one edge region , the individual substrates differ in the position of the countersink along the edge region in order to encode information by means of the at least one countersink in the edge region ; wherein the countersink completely penetrates the thickness of the metal layer .