mhurhangee/ep-ind-claims huggingface dataset:
Method for diagnosing a state in a vehicle having a CAN communication bus, to which electronic control units (5, 6, 7) of the vehicle are connected, for identifying a component which is responsible for unwanted CAN communication bus activation after the vehicle has entered an idle state, having the following steps of: - providing an idle state of the vehicle in which the electronic control units (5, 6, 7) are configured, during proper operation when there is no fault, not to emit a CAN message via the CAN communication bus, wherein, in order to provide the idle state of the vehicle, an ignition of the vehicle is switched off and the vehicle is shut off, - coupling a diagnostic test device to at least one diagnostic connection of the vehicle, which diagnostic connection is coupled to the CAN communication bus, - monitoring the CAN communication bus in a permanent scanning function for emitted CAN messages after entering the idle state by means of the diagnostic test device, - capturing a CAN message emitted on the CAN communication bus after entering the idle state and assigning the captured CAN message to an electronic control unit emitting the CAN message by means of the diagnostic test device, - providing information relating to temporal occurrence of the captured CAN message in a series of CAN messages occurring on the CAN communication bus after entering the idle state by means of the diagnostic test device, and - providing information (31, 41) for identifying the electronic control unit emitting the captured CAN message by means of the diagnostic test device. - providing an idle state of the vehicle in which the electronic control units (5, 6, 7) are configured, during proper operation when there is no fault, not to emit a CAN message via the CAN communication bus, wherein, in order to provide the idle state of the vehicle, an ignition of the vehicle is switched off and the vehicle is shut off, - coupling a diagnostic test device to at least one diagnostic connection of the vehicle, which diagnostic connection is coupled to the CAN communication bus, - monitoring the CAN communication bus in a permanent scanning function for emitted CAN messages after entering the idle state by means of the diagnostic test device, - capturing a CAN message emitted on the CAN communication bus after entering the idle state and assigning the captured CAN message to an electronic control unit emitting the CAN message by means of the diagnostic test device, - providing information relating to temporal occurrence of the captured CAN message in a series of CAN messages occurring on the CAN communication bus after entering the idle state by means of the diagnostic test device, and - providing information (31, 41) for identifying the electronic control unit emitting the captured CAN message by means of the diagnostic test device.
Control device (101; 201) for an ophthalmic surgical system (100; 200) for phacoemulsification of an eye lens, having: - an optical system (3; 90), by means of which an image can be generated of an object region, wherein at least part of the eye lens to be emulsified and part of a needle of a phacoemulsification handpiece with an aspiration line can be arranged in the object region, characterized in that said control device has: - an image evaluation unit, which is configured for evaluating the generated image (20; 22) in such a way that at least one evaluation variable, dependent on an occlusion of the aspiration line, is established, which is a kinematic measurement variable and/or a geometric measurement variable and/or an optical measurement variable of a particle (21, 31), produced by emulsification, of the eye lens to be treated, - a control unit, which is configured, dependent on the at least one supplied evaluation variable, to establish a control variable and to control an absolute value of a parameter of the ophthalmic surgical system (100; 200) using the control variable. - an optical system (3; 90), by means of which an image can be generated of an object region, wherein at least part of the eye lens to be emulsified and part of a needle of a phacoemulsification handpiece with an aspiration line can be arranged in the object region, - an image evaluation unit, which is configured for evaluating the generated image (20; 22) in such a way that at least one evaluation variable, dependent on an occlusion of the aspiration line, is established, which is a kinematic measurement variable and/or a geometric measurement variable and/or an optical measurement variable of a particle (21, 31), produced by emulsification, of the eye lens to be treated, - a control unit, which is configured, dependent on the at least one supplied evaluation variable, to establish a control variable and to control an absolute value of a parameter of the ophthalmic surgical system (100; 200) using the control variable.
A communication system, comprising: a first line card having a first transceiver coupled to a first subscriber line; and a second line card having a second transceiver coupled to a second subscriber line, the second line card having vector logic configured to perform vectoring, based on at least one vectoring coefficient, to cancel from a signal communicated across the second subscriber line crosstalk induced by a signal communicated across the first subscriber line, the vector logic configured to update the vectoring coefficient based on vectoring information from the first line card, wherein the vector logic is configured to disable the vectoring in response to a detection of a vectoring fault that prevents the second line card from receiving vectoring information from the first line card, the second line card having control logic configured to reduce a data rate of the second transceiver in response to the detection of the vectoring fault such that signals are communicated across the second subscriber line by the second transceiver at a reduced data rate while the vectoring is disabled. a first line card having a first transceiver coupled to a first subscriber line; and a second line card having a second transceiver coupled to a second subscriber line, the second line card having vector logic configured to perform vectoring, based on at least one vectoring coefficient, to cancel from a signal communicated across the second subscriber line crosstalk induced by a signal communicated across the first subscriber line, the vector logic configured to update the vectoring coefficient based on vectoring information from the first line card, wherein the vector logic is configured to disable the vectoring in response to a detection of a vectoring fault that prevents the second line card from receiving vectoring information from the first line card, the second line card having control logic configured to reduce a data rate of the second transceiver in response to the detection of the vectoring fault such that signals are communicated across the second subscriber line by the second transceiver at a reduced data rate while the vectoring is disabled.
A method implemented at a terminal device, comprising: receiving, from a network device, first trigger information in a first Downlink Control Information, DCI, format corresponding to a Physical Downlink Shared Channel, PDSCH, the first trigger information relating to Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information of the PDSCH; if the first trigger information does not indicate a timing for transmitting the HARQ-ACK information and the terminal device receives second trigger information in a second DCI format from the network device, the second trigger information indicating a timing for transmitting the HARQ-ACK information, multiplexing the HARQ-ACK information of the PDSCH in a Physical Uplink Control Channel, PUCCH, transmission at the timing indicated by the second trigger information, wherein the second trigger information is scrambled by a dedicated Radio Network Temporary Identifier, RNTI; and transmitting, to the network device, the HARQ-ACK information multiplexed in the PUCCH transmission, based on the second trigger information. receiving, from a network device, first trigger information in a first Downlink Control Information, DCI, format corresponding to a Physical Downlink Shared Channel, PDSCH, the first trigger information relating to Hybrid Automatic Repeat Request acknowledgement, HARQ-ACK, information of the PDSCH; if the first trigger information does not indicate a timing for transmitting the HARQ-ACK information and the terminal device receives second trigger information in a second DCI format from the network device, the second trigger information indicating a timing for transmitting the HARQ-ACK information, multiplexing the HARQ-ACK information of the PDSCH in a Physical Uplink Control Channel, PUCCH, transmission at the timing indicated by the second trigger information, wherein the second trigger information is scrambled by a dedicated Radio Network Temporary Identifier, RNTI; and transmitting, to the network device, the HARQ-ACK information multiplexed in the PUCCH transmission, based on the second trigger information.
A rotorcraft comprising: tail rotor blades; a tail rotor actuator coupled to the tail rotor blades such that the pitch of the tail rotor blades varies according to a current extension of the tail rotor actuator; pilot flight controls electrically coupled to the tail rotor actuator such that the current extension of the tail rotor actuator varies according to input from the pilot flight controls; and a flight control computer electrically coupled to the tail rotor actuator and the pilot flight controls, the flight control computer configured to: generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator. tail rotor blades; a tail rotor actuator coupled to the tail rotor blades such that the pitch of the tail rotor blades varies according to a current extension of the tail rotor actuator; pilot flight controls electrically coupled to the tail rotor actuator such that the current extension of the tail rotor actuator varies according to input from the pilot flight controls; and a flight control computer electrically coupled to the tail rotor actuator and the pilot flight controls, the flight control computer configured to: generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator. generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator.
A clad tube to be used in a clad type electrode, characterized in that, in the clad tube, a ratio A/B of a total pore volume A of a pore having a pore diameter of 10 μm or more with respect to a total pore volume B of a pore having a pore diameter smaller than 10 μm is 1.15 to 1.40, the total pore volume being measured by a pore size distribution meter.
An orthopedic device comprising: an implant having a plurality of attachment sites and a track that includes at least one slot (464, 466); a mounting member having a first end adapted to anchor to a patient's bone or soft tissue and a second end adapted to mate with the implant at each of the plurality of attachment sites; and an augment having a protrusion that is flared outwardly and adapted to translate within the at least one slot, the augment having a first surface that remains generally interfaced with an exterior surface of the implant when it rotates about the exterior surface. an implant having a plurality of attachment sites and a track that includes at least one slot (464, 466); a mounting member having a first end adapted to anchor to a patient's bone or soft tissue and a second end adapted to mate with the implant at each of the plurality of attachment sites; and an augment having a protrusion that is flared outwardly and adapted to translate within the at least one slot, the augment having a first surface that remains generally interfaced with an exterior surface of the implant when it rotates about the exterior surface.
A method implemented by a processing device having one or more processors, the method comprising steps of: obtaining a first Quality of Experience, QoE, measurement from a first content source; determining a QoE adjustment factor based on a predictive model, based on a learning process to obtain delta values for time intervals and days, comprising obtaining QoE measurements from the first content source and from the second content source at various time intervals and days; determining differences between the QoE measurements; creating a time series with the differences, and building said predictive model from said time series, and adjusting the first QoE measurement using the QoE adjustment factor to obtain a second QoE measurement, the adjusting comprising using the predictive model corresponding to a current time and day to get corresponding QoE adjustment factor, and adding the QoE adjustment factor to the first QoE measurement, the second QoE measurement reflecting a QoE estimate from a second content source different from the first content source. obtaining a first Quality of Experience, QoE, measurement from a first content source; determining a QoE adjustment factor based on a predictive model, based on a learning process to obtain delta values for time intervals and days, comprising obtaining QoE measurements from the first content source and from the second content source at various time intervals and days; determining differences between the QoE measurements; creating a time series with the differences, and building said predictive model from said time series, and obtaining QoE measurements from the first content source and from the second content source at various time intervals and days; determining differences between the QoE measurements; creating a time series with the differences, and building said predictive model from said time series, adjusting the first QoE measurement using the QoE adjustment factor to obtain a second QoE measurement, the adjusting comprising using the predictive model corresponding to a current time and day to get corresponding QoE adjustment factor, and adding the QoE adjustment factor to the first QoE measurement, the second QoE measurement reflecting a QoE estimate from a second content source different from the first content source.
A liquid-cooled storage battery system comprising: a secondary battery (8; 108); a holding member comprising a flow channel of a liquid cooling medium for cooling the secondary battery (8; 108), which holds the secondary battery (8; 108) via a thermal conductive sheet; a medium temperature measuring means for measuring temperatures T1 and T2 of the cooling medium at two locations in the flow channel; a battery temperature measuring means for measuring a temperature T3 of the secondary battery (8; 108); and characterized by a judging means for repetitively calculating a coefficient α and judging a cooling performance of the secondary battery (8; 108) based on a variation of the coefficient α, the coefficient α being defined as (T3 - T1)/(T2 - T1), (T3 - T2)/(T2 - T1), or (T3 - T2)/(T3 - T1), and wherein the judging means judges that an abnormality of the cooling performance is caused by a failure in the thermal conductive sheet when a difference between a currently calculated value and a previously calculated value of the coefficient α exceeds a range set in advance and the currently calculated value is greater than the previously calculated value. a secondary battery (8; 108); a holding member comprising a flow channel of a liquid cooling medium for cooling the secondary battery (8; 108), which holds the secondary battery (8; 108) via a thermal conductive sheet; a medium temperature measuring means for measuring temperatures T1 and T2 of the cooling medium at two locations in the flow channel; a battery temperature measuring means for measuring a temperature T3 of the secondary battery (8; 108); and characterized by a judging means for repetitively calculating a coefficient α and judging a cooling performance of the secondary battery (8; 108) based on a variation of the coefficient α, the coefficient α being defined as (T3 - T1)/(T2 - T1), (T3 - T2)/(T2 - T1), or (T3 - T2)/(T3 - T1), and wherein the judging means judges that an abnormality of the cooling performance is caused by a failure in the thermal conductive sheet when a difference between a currently calculated value and a previously calculated value of the coefficient α exceeds a range set in advance and the currently calculated value is greater than the previously calculated value.
Ceiling element which is produced from wood and has a ceiling plate having an upper and lower plate flat side which comprises axially parallel ribs (3; 4) spaced apart from each other on the flat side and protruding beyond the ceiling plate, wherein mutually spaced apart, axially parallel ribs (3; 4) protrude in each case beyond the upper and lower plate flat side of the ceiling plate, characterised in that edge regions of the ceiling plate arranged on the lower plate flat side and oriented transverse to the longitudinal direction of the ribs are each configured as a rib-free notch used as an end abutment.
A hand operated gripping tool comprising a fixed handle, a fixed jaw connected with said fixed handle, a movable handle pivotably connected with said fixed handle for pivoting movement relative to said fixed handle and a movable jaw connected with said movable handle for movement relative to said fixed jaw, characterised in that said fixed handle comprises a first portion to which said fixed jaw is fixed and second and third portions (315, 316) movable from a first position in which each forms a continuation of said first portion and a spread position in which said first, second and third portions define a tripod base.
Antenna housing in the form of a blunt body, wherein the antenna housing has a structure at at least one area which is exposed to an incident flow by an air flow after mounting the antenna housing, said structure being formed in such a way that it converts the impinging air flow and the air flow present at the housing from a substantially laminar flow into a turbulent flow at a transition area defined by the structure, wherein - the structure is formed as a turbulator or a as a microturbulator or a combination thereof, and wherein - the following structure is used as a turbulator: several adjacent, abrupt and sharpedged elevations with associated edges, wherein the edges point in several directions at an angle to each other, and wherein - the antenna housing substantially has a shape of a cuboid with front, first and second side walls, rear, lid and bottom as well as edges in between with a predefined edge radius, and the structure is arranged adjacent to or on an edge between the two sides. - the structure is formed as a turbulator or a as a microturbulator or a combination thereof, and wherein - the following structure is used as a turbulator: several adjacent, abrupt and sharpedged elevations with associated edges, wherein the edges point in several directions at an angle to each other, and wherein - the antenna housing substantially has a shape of a cuboid with front, first and second side walls, rear, lid and bottom as well as edges in between with a predefined edge radius, and the structure is arranged adjacent to or on an edge between the two sides.
A method of operating a first electronic device in the presence of a second electronic device wherein said first and second devices (2, 102) are configured to transmit acoustic signals, said first device being configured to transmit signals with a first signal characteristic, said method comprising: the first device determining the presence of the second device by recognising an inherent feature or characteristic of the acoustic signals transmitted by the second device which is sufficiently distinctive to determine the presence of the second device; thereafter transmitting acoustic signals from the first device, said signals having a second signal characteristic, different from the first signal characteristic; receiving acoustic signals at the first device comprising reflections of the transmitted signals from an object; and using said received signals to characterise the motion of the object and thereby control a function of the first device; wherein said second signal characteristic gives a reduced interference between signals transmitted from the first and second devices (2, 102) respectively than the first signal characteristic. the first device determining the presence of the second device by recognising an inherent feature or characteristic of the acoustic signals transmitted by the second device which is sufficiently distinctive to determine the presence of the second device; thereafter transmitting acoustic signals from the first device, said signals having a second signal characteristic, different from the first signal characteristic; receiving acoustic signals at the first device comprising reflections of the transmitted signals from an object; and using said received signals to characterise the motion of the object and thereby control a function of the first device;
A peptide consisting of the amino acid sequence as set forth in SEQ ID NO:1 or SEQ ID NO:2 or consisting of an amino acid sequence having one amino acid substitution in SEQ ID NO:1 or SEQ ID NO:2 and comprising the amino acid sequence YWSQ.
A catheter assembly comprising a catheter hub having an open proximal end and a distal end, with an inner surface extending therebetween and defining an interior cavity of the catheter hub, and a catheter tube extending distally from the catheter hub distal end; a rigid actuator extending proximally in the interior cavity of the catheter hub from the catheter hub distal end to a free end; and a seal member disposed in the interior cavity of the catheter hub, the seal member including a membrane, a distal portion extending distally from the membrane to a sealing outlet bore, and a biasing member between the sealing outlet bore and the distal end of the catheter hub, the distal portion having an actuator cavity therein between the membrane and the sealing outlet bore, the actuator extending through the sealing outlet bore into the actuator cavity, the membrane being normally closed, the seal member being axially shiftable along the actuator in a distal direction to force the membrane over the free end of the actuator and open the membrane, the biasing member configured to axially shift the seal member along the actuator in a proximal direction to force the membrane back over the free end of the actuator and close the membrane, the biasing member being partially compressed when the membrane is closed.