mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for predicting quality of experience, QoE, performance of an application downloading a webpage over a network, comprising: determining a stat data corresponding to a traffic through a network node of a network path between the application and a server stack; generating a feature vector, based at least in part on at least a portion of the stat data; estimating a download performance metric for the application downloading the webpage from one or more servers in the server stack, based at least in part on at least a portion of the feature vector; and estimating a QoE value, based at least in part on the estimated performance metric; wherein the stat data includes connection-level stat data indicating a plurality of different connections, each being between the application and a respective server for the connection, the server being within the server stack, and wherein generating the connection-level stat data is based, at least in part, on measurements at the network node; and wherein generating the feature vector includes: generating a sequence of feature data, by operations that include, over each time interval in a sequence of time intervals, determining a new connection-level stat data or updated connection-level stat data in response to said measurements indicating a respective end of one or more of the connections, a respective start of one or more new ones of the connections, or both, and generating the feature vector, based at least in part on a concatenating of integer N feature data among the sequence of feature data. determining a stat data corresponding to a traffic through a network node of a network path between the application and a server stack; generating a feature vector, based at least in part on at least a portion of the stat data; estimating a download performance metric for the application downloading the webpage from one or more servers in the server stack, based at least in part on at least a portion of the feature vector; and estimating a QoE value, based at least in part on the estimated performance metric; generating a sequence of feature data, by operations that include, over each time interval in a sequence of time intervals, determining a new connection-level stat data or updated connection-level stat data in response to said measurements indicating a respective end of one or more of the connections, a respective start of one or more new ones of the connections, or both, and generating the feature vector, based at least in part on a concatenating of integer N feature data among the sequence of feature data.
A connector for a teatcup to be attached to the teat of an animal to be milked, wherein the connector is configured to receive a cartridge comprising an elongated sleeve and a barrel , which is pre-mounted in the elongated sleeve and has an inner space for receiving said teat, wherein the elongated sleeve has axial length from a lower end (8") of the sleeve to an upper end of the sleeve , wherein the connector comprises a lower base member and a shell extending along a longitudinal central axis (x) from the lower base member and surrounding a receiving space for receiving the cartridge , wherein the lower base member and the shell form one piece of a plastic material and wherein the shell is configured to extend outside the elongated sleeve along the axial length of the elongated sleeve at least to the upper end of the sleeve when the cartridge is received in the receiving space of the connector , characterized in that the connector comprises a metal sleeve attached to and extending around an outer surface of the shell . wherein the elongated sleeve has axial length from a lower end (8") of the sleeve to an upper end of the sleeve , wherein the connector comprises a lower base member and a shell extending along a longitudinal central axis (x) from the lower base member and surrounding a receiving space for receiving the cartridge , wherein the lower base member and the shell form one piece of a plastic material and wherein the shell is configured to extend outside the elongated sleeve along the axial length of the elongated sleeve at least to the upper end of the sleeve when the cartridge is received in the receiving space of the connector , characterized in that the connector comprises a metal sleeve attached to and extending around an outer surface of the shell .
A phantom for use in an MRI scanner comprising: an outer housing; a plurality of vessels located within the outer housing, each of the vessels containing a material, wherein the value of at least one property of the material at a particular temperature is different for the material contained within each of the vessels; and a phase change material between the outer housing and the vessels, characterized in that the phase change material has a transition temperature or melting point in the range between 25°C to 45°C. an outer housing; a plurality of vessels located within the outer housing, each of the vessels containing a material, wherein the value of at least one property of the material at a particular temperature is different for the material contained within each of the vessels; and a phase change material between the outer housing and the vessels, characterized in that the phase change material has a transition temperature or melting point in the range between 25°C to 45°C.
A module for a gas turbine engine, the module comprising: a disk rotatable about an engine central axis (A) and a vane fixedly disposed upstream of the disk , the vane being hollow and including a vane cavity , the vane cavity having a vane longitudinal span between a vane upstream opening and vane downstream opening, the vane including: a baffle fixedly supported within the vane cavity , the baffle having a hollow interior and having a baffle longitudinal span between a baffle upstream surface and a baffle downstream surface, the baffle longitudinal span being less than the vane longitudinal span to define a partial space eater baffle ; and wherein a baffle opening area fluidly connects the vane cavity to the baffle interior , characterised in that the baffle opening area is between 32x10 -5 square centimeters (5.0x10 -5 square inches) and 9.7x10 -3 square centimeters (1.5x10-3 square inches) ; wherein the baffle opening area consists of a single opening in the baffle that fluidly connects the baffle interior with the vane cavity . a baffle fixedly supported within the vane cavity , the baffle having a hollow interior and having a baffle longitudinal span between a baffle upstream surface and a baffle downstream surface, the baffle longitudinal span being less than the vane longitudinal span to define a partial space eater baffle ; and wherein a baffle opening area fluidly connects the vane cavity to the baffle interior , characterised in that the baffle opening area is between 32x10 -5 square centimeters (5.0x10 -5 square inches) and 9.7x10 -3 square centimeters (1.5x10-3 square inches) ; wherein the baffle opening area consists of a single opening in the baffle that fluidly connects the baffle interior with the vane cavity .
A saddle-type vehicle comprising: a vehicle body frame including a main frame extending obliquely rearward and downward from a head pipe , and a seat frame extending rearward from the main frame and supporting a riding seat , wherein a front wheel is supported by a front portion of the vehicle body frame via a front fork , and a rear wheel is supported by a rear portion of the vehicle body frame via a swing arm ; and a vehicle height adjustment device provided below the seat frame to elastically support the seat frame and configured to adjust a height of the seat frame , wherein the vehicle height adjustment device includes an actuator unit and a cushion unit connected with each other by a pipe , characterised in that the actuator unit has a stepped portion , and at least a part of the cushion unit is disposed in a space formed by the stepped portion . a vehicle body frame including a main frame extending obliquely rearward and downward from a head pipe , and a seat frame extending rearward from the main frame and supporting a riding seat , wherein a front wheel is supported by a front portion of the vehicle body frame via a front fork , and a rear wheel is supported by a rear portion of the vehicle body frame via a swing arm ; and a vehicle height adjustment device provided below the seat frame to elastically support the seat frame and configured to adjust a height of the seat frame , wherein the vehicle height adjustment device includes an actuator unit and a cushion unit connected with each other by a pipe , characterised in that the actuator unit has a stepped portion , and at least a part of the cushion unit is disposed in a space formed by the stepped portion .
A compound, or a salt thereof, at a dose of 10 mg to 1000 mg, for use in a method of treating or preventing a bacterial infection in a subject in need thereof, wherein the compound is Compound A' represented by the following structural formula: and wherein said bacterial infection is caused by a bacterium of a bacterial species selected from the group consisting of: Bacillus anthracis (B. anthracis), Yersinia pestis (Y. pestis) and Burkholderia mallei (B. mallei) such that said bacterial infection in said subject is treated or prevented. and wherein said bacterial infection is caused by a bacterium of a bacterial species selected from the group consisting of: Bacillus anthracis (B. anthracis), Yersinia pestis (Y. pestis) and Burkholderia mallei (B. mallei) such that said bacterial infection in said subject is treated or prevented.
A method for determining a vectoring matrix comprising: obtaining (S300), by at least one processor, a crosstalk channel matrix; determining (S305), by the at least one processor, a power controlling matrix, the power controlling matrix for regulating powers corresponding to a plurality of active communication lines; directly applying, by the at least one processor, the power controlling matrix to the crosstalk channel matrix; determining (S310), by the at least one processor, the vectoring matrix based on the directly applying the power controlling matrix to the crosstalk channel matrix, vectored signals being generated (S315) using the vectoring matrix for communication over the plurality of active communication lines and the power controlling matrix being determined such that a strength of a product of the power controlling matrix and the crosstalk channel matrix is less than a threshold, wherein the strength is a norm or an upper bound on the spectral radius. obtaining (S300), by at least one processor, a crosstalk channel matrix; determining (S305), by the at least one processor, a power controlling matrix, the power controlling matrix for regulating powers corresponding to a plurality of active communication lines; directly applying, by the at least one processor, the power controlling matrix to the crosstalk channel matrix; determining (S310), by the at least one processor, the vectoring matrix based on the directly applying the power controlling matrix to the crosstalk channel matrix, vectored signals being generated (S315) using the vectoring matrix for communication over the plurality of active communication lines and the power controlling matrix being determined such that a strength of a product of the power controlling matrix and the crosstalk channel matrix is less than a threshold, wherein the strength is a norm or an upper bound on the spectral radius.
Monitoring device for a reluctance machine , with a vector rotator for rotating a space phasor for the flux of the reluctance machine dependent upon the voltage, with a low-pass filter for the rotated space phasor and a signal evaluation for the output signal of the low-pass filter , characterised in that the space phasor is rotated by the vector rotator into a coordinate system which rotates with negative fundamental frequency, wherein the space phasor is a voltage phasor, wherein a DC component can be ascertained by means of the low-pass filter , wherein the signal evaluation has an absolute-value generator and a threshold comparator.
A rabbet element to be mounted around openings for windows and/or doors in a concrete wall panel for a building during the process of casting of the concrete wall element and for providing a face for the door or window opening and for securing windows and/or doors in the opening of said rabbet frame element and thus in a door or window opening of the concrete wall element, said rabbet element comprising an insulation element , whereby the sides of the rabbet frame element further comprises a first screwable plate being glued on a first side of the insulation element , where the first side faces inwardly toward the door/window opening and thus perpendicularly to the rear wall , characterized in that the sides of the rabbet element further comprises a second screwable plate being glued on a second side of the insulation element facing away from the façade side of a rear wall of the concrete element, and where said second screwable plate extends perpendicularly to the first screwable plate .
A method for manufacturing a membrane electrode assembly, the method comprising: depositing a recombination suspension directly onto a surface of an ionically conductive membrane forming a recombination layer, wherein the recombination suspension includes a solvent and metal oxide; reducing the metal oxide of recombination layer to provide a cured recombination layer comprising the metal; and depositing an ionomer layer on a surface of the cured recombination layer. depositing a recombination suspension directly onto a surface of an ionically conductive membrane forming a recombination layer, wherein the recombination suspension includes a solvent and metal oxide; reducing the metal oxide of recombination layer to provide a cured recombination layer comprising the metal; and depositing an ionomer layer on a surface of the cured recombination layer.
A power conversion system , comprising: an inverter including a plurality of switching devices (S1-S6) operable according to switching control signals to provide AC output power to drive a load ; and a controller providing the switching control signals to the inverter to regulate the inverter output currents (IA, IB, IC) at least partially according to a frequency or speed setpoint value via a control algorithm characterized in that the control algorithm has a bandwidth one or more magnitudes lower than a resonant frequency of a filter coupled between the inverter and the load . an inverter including a plurality of switching devices (S1-S6) operable according to switching control signals to provide AC output power to drive a load ; and a controller providing the switching control signals to the inverter to regulate the inverter output currents (IA, IB, IC) at least partially according to a frequency or speed setpoint value via a control algorithm characterized in that the control algorithm has a bandwidth one or more magnitudes lower than a resonant frequency of a filter coupled between the inverter and the load .
An electrical module adapted to operate while optionally connected to at least one other electrical module , the electrical module comprising a box having arranged thereon first connection means suitable for connecting the electrical module to an external power supply, and second connection means enabling the electrical module to exchange first data externally, the first connection means and the second connection means being grouped together in a single first connector , the electrical module also including link means that are fastened to the box and that are adapted to connect the electrical module to another electrical module of the same type in order to convey thereto link data and/or a link power supply, the link means comprising an arm having a first end fastened to the box and a second end having a second connector adapted to be connected to the other electrical module , the second connector being complementary to the first connector , the arm of the link means being adapted to pivot relative to the box at the first end so that the link means can be positioned in a connection position in which the second connector is adapted to be connected to the other electrical module , and in a rest position in which the second connector is not connected to the other electrical module .
A container-interior drying method for drying an inner wall surface of a container (C), the method comprising: inserting a gas ejector nozzle into an interior of the container (C) through an opening (C1) of the container (C); ejecting gas from the gas ejector nozzle into the interior of the container (C) and sucking out gas through the opening (C) of the container (C) by a suction mechanism positioned so as to face the opening (C1) of the container, wherein the suction mechanism is formed of a gas flow amplifying unit including a gas supply part and a gas flow amplification path that has a suction inlet and an ejection outlet ; supplying the gas ejector nozzle with gas to eject gas into the interior of the container (C); and supplying the gas supply part of the gas flow amplifying unit with gas to suck out gas through the opening (C1) of the container(C). inserting a gas ejector nozzle into an interior of the container (C) through an opening (C1) of the container (C); ejecting gas from the gas ejector nozzle into the interior of the container (C) and sucking out gas through the opening (C) of the container (C) by a suction mechanism positioned so as to face the opening (C1) of the container, wherein the suction mechanism is formed of a gas flow amplifying unit including a gas supply part and a gas flow amplification path that has a suction inlet and an ejection outlet ; supplying the gas ejector nozzle with gas to eject gas into the interior of the container (C); and supplying the gas supply part of the gas flow amplifying unit with gas to suck out gas through the opening (C1) of the container(C).
A power transmission cable (10; 20) comprising a conductor (1; 21) and an insulation system (2; 22), wherein the insulation system (2; 22) comprises: - a first semi-conductive covering (4; 24) comprising a layer of semi-conductive material radially surrounding the conductor (1; 21); - an insulation covering (5; 25) comprising a layer of insulation material surrounding the first semi-conductive covering (4; 24) radially outwards; - a second semi-conductive covering (6; 26) comprising a layer of semi-conductive material surrounding the insulation covering (5; 25) radially outwards; wherein the semi-conductive material and the insulation material comprise a first polymeric material arranged to form a base film (31; 31'), and a second polymeric material arranged to fill in spaces and/or any voids in the insulation system, wherein the first polymeric material and the second polymeric material have different physical and/or chemical properties, wherein the second polymeric material is an adhesive material, and wherein at least the first polymeric material that forms the base film (31; 31') of the semi-conductive material and the insulation material is helically wound around the conductor (1; 21) or a cable body comprising the conductor (1; 21) and at least the first semi-conductive covering (4; 24). - a first semi-conductive covering (4; 24) comprising a layer of semi-conductive material radially surrounding the conductor (1; 21); - an insulation covering (5; 25) comprising a layer of insulation material surrounding the first semi-conductive covering (4; 24) radially outwards; - a second semi-conductive covering (6; 26) comprising a layer of semi-conductive material surrounding the insulation covering (5; 25) radially outwards;
A method of authenticating an asset in a dynamic, proximity-based network of communication devices (1-6), where the communication devices comprise a first communication interface for establishing the dynamic, proximity-based network by short-range wireless beacon broadcast messaging , and a second communication interface for communicating with a server by broadband communication , the method involving: a first communication device sending an authentication request (AUTH_REQ1) to a second communication device via the first communication interface , said asset being associated with the second communication device; the second communication device receiving the authentication request (AUTH_REQ1) via the first communication interface and in response communicating with the server via the second communication interface to generate a digital signature (U2_Signed) by encrypting data which includes said asset with a private key (U2_PrK) for the second communication device; the second communication device sending a signing completed report message (SIGNING_REP2) about the generation of the digital signature (U2_Signed) to the first communication device via the first communication interface ; and the first communication device receiving the signing completed report message (SIGNING_REP2) via the first communication interface and in response communicating with the server via the second communication interface to retrieve an authentication result (AUTH_RESULT). a first communication device sending an authentication request (AUTH_REQ1) to a second communication device via the first communication interface , said asset being associated with the second communication device; the second communication device receiving the authentication request (AUTH_REQ1) via the first communication interface and in response communicating with the server via the second communication interface to generate a digital signature (U2_Signed) by encrypting data which includes said asset with a private key (U2_PrK) for the second communication device; the second communication device sending a signing completed report message (SIGNING_REP2) about the generation of the digital signature (U2_Signed) to the first communication device via the first communication interface ; and the first communication device receiving the signing completed report message (SIGNING_REP2) via the first communication interface and in response communicating with the server via the second communication interface to retrieve an authentication result (AUTH_RESULT).