mhurhangee/ep-ind-claims huggingface dataset:
A fraud detection method for use in an in-vehicle network system including a plurality of electronic control units (100a, 100b) that communicate with one another via a bus in accordance with CAN, Controller Area Network, protocol, comprising: the reception step of receiving a data frame sent over the bus; and wherein if in the reception step, a data frame that follows a predetermined rule regarding a transmission period is received, the data frame is detected as being an authorized data frame the verification step of, when a data frame that does not follow the predetermined rule regarding a transmission period is received in the reception step and only if a state of a vehicle having the in-vehicle network system mounted therein is a predetermined state, verifying a specific identifier in the data frame, wherein if in the verification step, the verification of the specific identifier is successful, the data frame is detected as being an authorized data frame, and wherein if in the verification step, the verification of the specific identifier fails, the data frame is detected as being a fraudulent data frame, the predetermined state of the vehicle is the vehicle travelling. the reception step of receiving a data frame sent over the bus; and wherein if in the reception step, a data frame that follows a predetermined rule regarding a transmission period is received, the data frame is detected as being an authorized data frame the verification step of, when a data frame that does not follow the predetermined rule regarding a transmission period is received in the reception step and only if a state of a vehicle having the in-vehicle network system mounted therein is a predetermined state, verifying a specific identifier in the data frame, wherein if in the verification step, the verification of the specific identifier is successful, the data frame is detected as being an authorized data frame, and wherein if in the verification step, the verification of the specific identifier fails, the data frame is detected as being a fraudulent data frame, the predetermined state of the vehicle is the vehicle travelling.
A sports pad for use in estimating a force exerted by an external object on the sports pad, the sports pad comprising: a two-dimensional array of sensors, the array of sensors comprises at least 10 sensors, the sensors being spaced apart from one another across a grid of sensor positions of the sports pad, each sensor being configured to independently collect data indicative of the force acting on the respective sensor; a data receiver configured to receive the collected data from each of the array of sensors such that data from a plurality of the sensors may be used to estimate a force, characterised in that: the grid of sensor positions is a non-uniform grid of sensor positions; and each sensor comprises a force sensitive area and wherein the total force sensitive area of the array of sensors is at most 50% of the total area covered by the array of sensors. a two-dimensional array of sensors, the array of sensors comprises at least 10 sensors, the sensors being spaced apart from one another across a grid of sensor positions of the sports pad, each sensor being configured to independently collect data indicative of the force acting on the respective sensor; a data receiver configured to receive the collected data from each of the array of sensors such that data from a plurality of the sensors may be used to estimate a force, characterised in that: the grid of sensor positions is a non-uniform grid of sensor positions; and each sensor comprises a force sensitive area and wherein the total force sensitive area of the array of sensors is at most 50% of the total area covered by the array of sensors. the grid of sensor positions is a non-uniform grid of sensor positions; and each sensor comprises a force sensitive area and wherein the total force sensitive area of the array of sensors is at most 50% of the total area covered by the array of sensors.
Method for the variable rotational speed control of a displacement pump unit for delivering a fluid, by means of a control device, the displacement pump unit comprising a displacement pump and a drive, the drive comprising an electric drive motor provided with stator and rotor and a frequency converter, a controlled variable of the displacement pump being controlled to a set point by the control device, wherein, by means of the control device, at least one drive-provided state value of the drive is registered and, from this, the controlled variable of the displacement pump is determined by the control device, in order to control the displacement pump unit to the set point without the use of sensors, characterized in that torque and position of the drive motor are registered as state values of the drive.
An environmental protection system operated in a plant, the environmental protection system comprising: a regenerative thermal oxidization unit for processing a waste gas to produce a hot gas; a drying unit; a first hot gas pipeline (R1-H1-H2-D1) connected to the regenerative thermal oxidization unit and the drying unit, wherein the hot gas from the regenerative thermal oxidization unit enters the drying unit via the first hot gas pipeline (R1-H1-H2-D1); a heat recovery unit disposed at the first hot gas pipeline (R1-H1-H2-D1) to absorb heat from the first hot gas pipeline (R1-H1-H2-D1); an absorption refrigeration unit connected to a target to be cooled in the plant; and a hot liquid pipeline (H3-A1-A2-H4) connected to the heat recovery unit and the absorption refrigeration unit, wherein the heat recovery unit transfers the heat from the first hot gas pipeline (R1-H1-H2-D1) to the absorption refrigeration unit via the hot liquid pipeline (H3-A1-A2-H4) so as to actuate the absorption refrigeration unit to cool the target. a regenerative thermal oxidization unit for processing a waste gas to produce a hot gas; a drying unit; a first hot gas pipeline (R1-H1-H2-D1) connected to the regenerative thermal oxidization unit and the drying unit, wherein the hot gas from the regenerative thermal oxidization unit enters the drying unit via the first hot gas pipeline (R1-H1-H2-D1); a heat recovery unit disposed at the first hot gas pipeline (R1-H1-H2-D1) to absorb heat from the first hot gas pipeline (R1-H1-H2-D1); an absorption refrigeration unit connected to a target to be cooled in the plant; and a hot liquid pipeline (H3-A1-A2-H4) connected to the heat recovery unit and the absorption refrigeration unit, wherein the heat recovery unit transfers the heat from the first hot gas pipeline (R1-H1-H2-D1) to the absorption refrigeration unit via the hot liquid pipeline (H3-A1-A2-H4) so as to actuate the absorption refrigeration unit to cool the target.
A method comprising: transmitting, by a base station, a first orthogonal frequency division multiple access, OFDMA, sub-frame (210, 220, 240, 310, 320, 340, 705, 710, 715, 720) over a wireless network, wherein the first OFDMA sub-frame carries: a first data field for a first mobile station in a first time segment of a first OFDMA sub-channel, a second data field for a second mobile station in a second time segment of the first OFDMA sub-channel, a first high efficiency wireless local area network, HE WLAN, HEW, short training field, STF, for the first data field, a first set of HEW long training fields, LTFs, for the first data field, a second HEW STF for the second data field, and a second set of HEW LTFs for the second data field; further comprising transmitting, by the base station, a second OFDMA sub-frame (210, 220, 240, 310, 320, 340, 705, 710, 715, 720) over the wireless network, wherein the second OFDMA sub-frame carries a third data field in the first time segment of a second OFDMA sub-channel, a fourth data field in the second time segment of the second OFDMA sub-channel, a third HEW STF for the third data field, a third set of HEW LTFs for the third data field, a fourth HEW STF for the fourth data field, and a fourth set of HEW LTFs for the fourth data field, wherein the third HEW STF is aligned with the first HEW STF in the time domain, and the fourth HEW STF is aligned with the second HEW STF in the time domain, wherein the first set of HEW LTFs is aligned with the third set of HEW LTFs in the time domain, and the second set of HEW LTFs is aligned with the fourth set of HEW LTFs in the time domain.
A training device, comprising: a set of simulated human body parts, including one or more of an anatomically correct as to shape, weight and density: head, neck, leg, arm, hand, foot or torso, wherein at least one of the set of simulated body parts includes a simulated mechanical or electro-pneumatic joint to hyperextend and snap or break upon receipt of an accurate hyperextension force, and, following a snap or break, to be reset to an unsnapped or unbroken state, and wherein each simulated human body part of the set further including a covering of simulated human skin correct as to thickness and density. head, neck, leg, arm, hand, foot or torso, wherein at least one of the set of simulated body parts includes a simulated mechanical or electro-pneumatic joint to hyperextend and snap or break upon receipt of an accurate hyperextension force, and, following a snap or break, to be reset to an unsnapped or unbroken state, and wherein each simulated human body part of the set further including a covering of simulated human skin correct as to thickness and density.
A fastener cartridge (3 800), comprising: a cartridge body, comprising: a deck configured to support tissue, wherein said deck comprises: a first longitudinal deck portion comprising a first height; and a second longitudinal deck portion (2711") comprising a second height which is different than said first height; a first longitudinal row of fastener cavities defined in said first longitudinal deck portion; and a second longitudinal row of fastener cavities defined in said second longitudinal deck portion (2711"); and a plurality of fasteners removably stored in said fastener cavities; characterized in that the cartridge body further comprises a projection extending from said first longitudinal deck portion and said second longitudinal deck portion (2711"). a cartridge body, comprising: a deck configured to support tissue, wherein said deck comprises: a first longitudinal deck portion comprising a first height; and a second longitudinal deck portion (2711") comprising a second height which is different than said first height; a first longitudinal row of fastener cavities defined in said first longitudinal deck portion; and a second longitudinal row of fastener cavities defined in said second longitudinal deck portion (2711"); and a deck configured to support tissue, wherein said deck comprises: a first longitudinal deck portion comprising a first height; and a second longitudinal deck portion (2711") comprising a second height which is different than said first height; a first longitudinal deck portion comprising a first height; and a second longitudinal deck portion (2711") comprising a second height which is different than said first height; a first longitudinal row of fastener cavities defined in said first longitudinal deck portion; and a second longitudinal row of fastener cavities defined in said second longitudinal deck portion (2711"); and a plurality of fasteners removably stored in said fastener cavities; characterized in that the cartridge body further comprises a projection extending from said first longitudinal deck portion and said second longitudinal deck portion (2711").
A method for activating, performed by a user equipment, UE, a bandwidth part in a wireless communication system, the method comprising: receiving a configuration of multiple bandwidth parts with a deactivation timer from a base station, activating (S820, S1010) a first bandwidth part among the multiple bandwidth parts; based on a failure of a random access procedure on the first bandwidth part and the expiration of the deactivation timer, deactivating (S830, S1020) the first bandwidth part; initiating the random access procedure on a second bandwidth part; transmitting, to the base station via the second bandwidth part, a confirmation message representing deactivation of the first bandwidth part, wherein the confirmation message includes an index of the first bandwidth part, an index of the second bandwidth part, and a cause of the expiration of the deactivation timer; activating (S840, S1030) the second bandwidth part among the multiple bandwidth parts; and performing (S850, S1040) uplink transmission to the base station via the activated second bandwidth part. receiving a configuration of multiple bandwidth parts with a deactivation timer from a base station, activating (S820, S1010) a first bandwidth part among the multiple bandwidth parts; based on a failure of a random access procedure on the first bandwidth part and the expiration of the deactivation timer, deactivating (S830, S1020) the first bandwidth part; initiating the random access procedure on a second bandwidth part; transmitting, to the base station via the second bandwidth part, a confirmation message representing deactivation of the first bandwidth part, wherein the confirmation message includes an index of the first bandwidth part, an index of the second bandwidth part, and a cause of the expiration of the deactivation timer; activating (S840, S1030) the second bandwidth part among the multiple bandwidth parts; and performing (S850, S1040) uplink transmission to the base station via the activated second bandwidth part.
A method for forming a ceramic matrix composite structure, the method comprising: providing a mixture of carbon nanotubes, graphene, and silicon carbon nitride; heating the mixture to bond the carbon nanotubes and the graphene; and sintering the silicon carbon nitride in the mixture, such that conductive pathways are formed between the carbon nanotubes and the graphene within the ceramic backbone, wherein the carbon nanotubes is in a range of 10-30 % by weight; the graphene is in a range of 10-30 % by weight; and the silicon carbon nitride is in a powder form in a range of 60-80 % by weight, and wherein a combined weight of the carbon nanotubes and the graphene in the mixture is less than 40 % by weight. providing a mixture of carbon nanotubes, graphene, and silicon carbon nitride; heating the mixture to bond the carbon nanotubes and the graphene; and sintering the silicon carbon nitride in the mixture, such that conductive pathways are formed between the carbon nanotubes and the graphene within the ceramic backbone, wherein the carbon nanotubes is in a range of 10-30 % by weight; the graphene is in a range of 10-30 % by weight; and the silicon carbon nitride is in a powder form in a range of 60-80 % by weight, and wherein a combined weight of the carbon nanotubes and the graphene in the mixture is less than 40 % by weight.
An ultrasonic vibration device having a sonotrode and a converter (10, 10'), wherein the converter (10, 10') has a piezoelectric actuator for converting an electrical alternating voltage into a mechanical vibration, wherein there is provided a first piezoelectric sensor element which outputs a first measurement signal which varies in dependence on the vibration amplitude of the mechanical vibration, and wherein there is provided a second piezoelectric sensor element which outputs a second measurement signal which varies in dependence on the vibration amplitude of the mechanical vibration, characterised in that the second piezoelectric sensor element differs in a physical property from the first piezoelectric sensor element, such that the first and the second measurement signal show a different dependency on an intensive state variable.
Driving device, comprising a hand-held housing with a piston element for transferring energy to a fastening element to be driven arranged in it, a particularly changeable propellant and a combustion chamber arranged between the propellant and the piston element, which extends particularly around a central axis, and a control element, by means of which the energy transferring from the propellant to the piston element may be changed in an adjustable way, in which a blowoff channel connected to the combustion chamber may be released by means of a moveable slider of the control element, characterised in that the driving device has a second control element, by means of which a starting position of the piston element may be changed in an adjustable way.
A method of detecting retargeted endopeptidase activity, the method comprising the steps of: a) treating a cell from an established cell line with a sample comprising a retargeted endopeptidase, wherein the cell from an established cell line is susceptible to retargeted endopeptidase activity by a retargeted endopeptidase; b) isolating from the treated cell line a SNAP-25 component comprising a SNAP-25 cleavage product having a carboxyl-terminus at the P 1 residue of the BoNT/A cleavage site scissile bond; c) contacting the SNAP-25 component with an α-SNAP-25 antibody, wherein the α-SNAP-25 antibody binds an epitope comprising a carboxyl-terminus at the P 1 residue of the BoNT/A cleavage site scissile bond from a SNAP-25 cleavage product; and d) detecting the presence of an antibody-antigen complex comprising the α-SNAP-25 antibody and the SNAP-25 cleavage product; wherein detection by the antibody-antigen complex is indicative of retargeted endopeptidase activity, wherein the α-SNAP-25 antibody binds an epitope comprising a carboxyl-terminus at the P 1 residue from the BoNT/A cleavage site scissile bond from a SNAP-25 cleavage product and wherein the isolated α-SNAP-25 antibody has a V H CDR1 of SEQ ID NO:93, a V H CDR2 of SEQ ID NO:96, a V H CDR3 of SEQ ID NO:100, a V L CDR1 of SEQ ID NO:105, a V L CDR2 of SEQ ID NO:110, and a V L CDR3 of SEQ ID NO:115.
A method of launching a game application, comprising the steps of: providing a game application launch object to an operating system or helper application and displaying, by a user interface of the operating system or the helper application, a graphical object for the game application launch object, in which the game application launch object is a shortcut specifying a game executable location in association with the graphical obj ect; providing data specifying a plurality of modes of operation for the game application in association with the game application launch object; providing a user interface in which at least a subset of the plurality of modes of operation are presented to a user when that user performs a predetermined interaction with the graphical object; receiving a user selection indicating a selected mode of operation; and launching the game application into a playable game state that is dependent upon the selected mode of operation, in which the game application comprises one or more common components that are common to two or more of the plurality of modes of operation, and in which the method comprises the steps of: detecting whether the user interacts with the graphical object; and if so; commencing loading the one or more common components of the game application before the user has selected to launch the game in the selected mode of operation. providing a game application launch object to an operating system or helper application and displaying, by a user interface of the operating system or the helper application, a graphical object for the game application launch object, in which the game application launch object is a shortcut specifying a game executable location in association with the graphical obj ect; providing data specifying a plurality of modes of operation for the game application in association with the game application launch object; providing a user interface in which at least a subset of the plurality of modes of operation are presented to a user when that user performs a predetermined interaction with the graphical object; receiving a user selection indicating a selected mode of operation; and launching the game application into a playable game state that is dependent upon the selected mode of operation, in which the game application comprises one or more common components that are common to two or more of the plurality of modes of operation, and in which the method comprises the steps of: detecting whether the user interacts with the graphical object; and if so; commencing loading the one or more common components of the game application before the user has selected to launch the game in the selected mode of operation. detecting whether the user interacts with the graphical object; and if so; commencing loading the one or more common components of the game application before the user has selected to launch the game in the selected mode of operation.
At least one compound or pharmaceutically acceptable salt for use in treating an autoimmune neurological disease, wherein the at least one compound is selected from a group consisting of: as trans-sobrerol; and
A system, comprising a network node configured to notify flow control information to a mobile terminal capable of selecting an access network for routing a traffic flow and having a plurality of interfaces (801, 802); and the mobile terminal; wherein the network node comprises a flow control information notifying unit configured to notify the flow control information to the mobile terminal, the flow control information including (i) a trusted flow list including a flow identifier identifying a traffic flow that is to be transmitted over a trusted access network only and instructing the mobile terminal that the traffic flow should be forwarded over the trusted access network, and (ii) a trusted access list including an access network identifier identifying an access network (200, 201) trusted by a service provider and notifying the mobile terminal that the access network (200, 201) is classified as the a trusted network of the service provider; and the mobile terminal is configured to confirm for a traffic flow that is currently transmitted or received by a first interface of the plurality of interfaces (801, 802), based on the flow control information, whether it is possible or not to transmit or receive said traffic flow via an access network connected to a second interface different from the first interface of the plurality of interfaces (801, 802). a network node configured to notify flow control information to a mobile terminal capable of selecting an access network for routing a traffic flow and having a plurality of interfaces (801, 802); and the mobile terminal; wherein the network node comprises a flow control information notifying unit configured to notify the flow control information to the mobile terminal, the flow control information including (i) a trusted flow list including a flow identifier identifying a traffic flow that is to be transmitted over a trusted access network only and instructing the mobile terminal that the traffic flow should be forwarded over the trusted access network, and (ii) a trusted access list including an access network identifier identifying an access network (200, 201) trusted by a service provider and notifying the mobile terminal that the access network (200, 201) is classified as the a trusted network of the service provider; and the mobile terminal is configured to confirm for a traffic flow that is currently transmitted or received by a first interface of the plurality of interfaces (801, 802), based on the flow control information, whether it is possible or not to transmit or receive said traffic flow via an access network connected to a second interface different from the first interface of the plurality of interfaces (801, 802).