mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit, comprising: terminals which are a pair, for measuring voltage or current of a battery, and to which a filter unit including a capacitive element is connected; an analog-to-digital, AD, converter configured to measure a waveform of voltage between the terminals during charging or discharging of the capacitive element; and a time constant calculation unit configured to calculate a time constant of the filter unit based on the waveform measured, characterized in that the time constant calculation unit is configured to calculate the time constant of the filter unit based on an integral value in a first interval of the waveform measured and an integral value in a second interval of the waveform measured, the second interval being different from the first interval. terminals which are a pair, for measuring voltage or current of a battery, and to which a filter unit including a capacitive element is connected; an analog-to-digital, AD, converter configured to measure a waveform of voltage between the terminals during charging or discharging of the capacitive element; and a time constant calculation unit configured to calculate a time constant of the filter unit based on the waveform measured, characterized in that the time constant calculation unit is configured to calculate the time constant of the filter unit based on an integral value in a first interval of the waveform measured and an integral value in a second interval of the waveform measured, the second interval being different from the first interval.
A vehicle rinsing assembly for treating a vehicle exterior surface, comprising: at least one blower unit (104, 106) having: a housing; an air inlet formed in the housing; a motor unit in communication with the housing to draw air into the air inlet; and an air outlet for emitting a stream of high velocity air from the blower unit (104, 106) toward the vehicle exterior surface; a first fluid outlet disposed adjacent the blower unit (104, 106) and in communication with a first fluid source to direct a spray of a first fluid toward the vehicle exterior surface, characterized by; an actuator (84, 132) in communication with the at least one blower unit 104, 106) and configured to vary a direction of the stream of high velocity air from the air outlet with respect to the vehicle exterior surface; and a controller in communication with the motor unit and the first fluid outlet in order to emit air and fluid simultaneously toward the vehicle exterior surface in the same general direction; whereby the controller is further in communication with the actuator (84, 132) to vary the direction of the stream of high velocity air and the spray of the first fluid in response to the location of the vehicle with respect to the rinsing assembly. at least one blower unit (104, 106) having: a housing; an air inlet formed in the housing; a motor unit in communication with the housing to draw air into the air inlet; and an air outlet for emitting a stream of high velocity air from the blower unit (104, 106) toward the vehicle exterior surface; a housing; an air inlet formed in the housing; a motor unit in communication with the housing to draw air into the air inlet; and an air outlet for emitting a stream of high velocity air from the blower unit (104, 106) toward the vehicle exterior surface; a first fluid outlet disposed adjacent the blower unit (104, 106) and in communication with a first fluid source to direct a spray of a first fluid toward the vehicle exterior surface, characterized by; an actuator (84, 132) in communication with the at least one blower unit 104, 106) and configured to vary a direction of the stream of high velocity air from the air outlet with respect to the vehicle exterior surface; and a controller in communication with the motor unit and the first fluid outlet in order to emit air and fluid simultaneously toward the vehicle exterior surface in the same general direction; whereby the controller is further in communication with the actuator (84, 132) to vary the direction of the stream of high velocity air and the spray of the first fluid in response to the location of the vehicle with respect to the rinsing assembly.
A method for determining a cooling solution for an electrical cabinet in which a plurality of electrical functional units are housed, said electrical functional units being arranged along a separation plane of the electrical cabinet delimiting: - a first heat zone formed by a first area of the electrical cabinet located on a first side of the separation plane, and - a second heat zone formed by a second area of the electrical cabinet located on a second side of the separation plane, characterized in that the method is implemented by computer and comprises the following steps: - characterizing, from data relative to the electrical cabinet, a cooling need of the electrical cabinet, - deducing, based on the data relative to the electrical cabinet, a distribution coefficient of the cooling need between the first and second heat zones (E1, E2), - selecting, based on said cooling need, a cooling system to cool the electrical cabinet, - choosing, based on the selected cooling system and accessibility criteria of the electrical cabinet, an arrangement of the cooling system on at least one outer wall (10, 11, 12, 13, 14, 15) of the electrical cabinet, and - evaluating, based on the selected cooling system and the arrangement chosen for this cooling system, the need to form, in a lower half of the separation plane, a lower air circulation opening between the first heat zone and the second heat zone, and - when it is found to be necessary to form a lower air circulation opening, evaluating the position and dimensions of this lower air circulation opening based on the distribution coefficient. - a first heat zone formed by a first area of the electrical cabinet located on a first side of the separation plane, and - a second heat zone formed by a second area of the electrical cabinet located on a second side of the separation plane, - characterizing, from data relative to the electrical cabinet, a cooling need of the electrical cabinet, - deducing, based on the data relative to the electrical cabinet, a distribution coefficient of the cooling need between the first and second heat zones (E1, E2), - selecting, based on said cooling need, a cooling system to cool the electrical cabinet, - choosing, based on the selected cooling system and accessibility criteria of the electrical cabinet, an arrangement of the cooling system on at least one outer wall (10, 11, 12, 13, 14, 15) of the electrical cabinet, and - evaluating, based on the selected cooling system and the arrangement chosen for this cooling system, the need to form, in a lower half of the separation plane, a lower air circulation opening between the first heat zone and the second heat zone, and - when it is found to be necessary to form a lower air circulation opening, evaluating the position and dimensions of this lower air circulation opening based on the distribution coefficient.
A radio frequency communication device comprising a radio frequency communications interface and a controller, wherein said controller is configured to: establish network communication with a network node; establish device-to-device communication with a second radio frequency communication device via said radio frequency communication interface; determine whether there is to be performed a simultaneous transmission comprising a network transmission of information over said network communication with said network node and a D2D transmission of information over said device-to-device communication with said second radio frequency communication device; determine if there is a transmission problem related to said simultaneous transmission by determining if a power imbalance between the simultaneous transmissions will be likely to cause, or is currently causing, a transmission problem on one or both transmission links over said network communication and over said device-to-device communication, wherein the transmission problem comprises adjacent channel interference, and if it is determined that there is a transmission problem related to said simultaneous transmission, determine a mitigation technique, wherein the mitigation technique comprises restricting transmission of the information of one of said network communication and said device-to-device communication, by restricting the information to be transmitted on the one of said network communication and said device-to-device communication; and simultaneously perform said network transmission and said D2D transmission according to said mitigation technique for mitigation of said transmission problem. establish network communication with a network node; establish device-to-device communication with a second radio frequency communication device via said radio frequency communication interface; determine whether there is to be performed a simultaneous transmission comprising a network transmission of information over said network communication with said network node and a D2D transmission of information over said device-to-device communication with said second radio frequency communication device; determine if there is a transmission problem related to said simultaneous transmission by determining if a power imbalance between the simultaneous transmissions will be likely to cause, or is currently causing, a transmission problem on one or both transmission links over said network communication and over said device-to-device communication, wherein the transmission problem comprises adjacent channel interference, and if it is determined that there is a transmission problem related to said simultaneous transmission, determine a mitigation technique, wherein the mitigation technique comprises restricting transmission of the information of one of said network communication and said device-to-device communication, by restricting the information to be transmitted on the one of said network communication and said device-to-device communication; and simultaneously perform said network transmission and said D2D transmission according to said mitigation technique for mitigation of said transmission problem.
A wavelength converting material comprising AE 3-x1-y+z RE 3 -x2+y-z [Si 9 -w Al w (N 1 -y C y) (N 16-z-w O z+w)]:Eu x1,Ce x2, where AE = Ca, Sr, Ba; RE = Y, Lu, La, Sc; 0 ≤ x1 ≤ 0.18; 0 ≤ x2 ≤ 0.2; x1 + x2 > 0; 0 ≤ y ≤ 1; 0 ≤ z ≤ 3; 0 ≤ w ≤ 3.
Method of providing a driving recommendation to a driver of a train during operation of the train, the driving recommendation being based on a distance (D seg) and an altitude profile of a trip segment to be covered by the train, a travel time limit for the trip segment, and velocity limits along the trip segment, wherein the method comprises the steps of: defining an initial state of the train on the basis of an actual position of the train and an actual velocity of the train, defining a goal state of the train on the basis of a goal position and a goal velocity at the end of the trip segment to be covered by the train, determining an energy-optimized velocity profile between the initial state of the train and the goal state of the train, with the energy-optimized velocity profile being determined by a graph based optimization algorithm, constrained by the travel time limit for the trip segment and the velocity limits along the trip segment, and providing the driving recommendation to the driver on the basis of the energy-optimized velocity profile. defining an initial state of the train on the basis of an actual position of the train and an actual velocity of the train, defining a goal state of the train on the basis of a goal position and a goal velocity at the end of the trip segment to be covered by the train, determining an energy-optimized velocity profile between the initial state of the train and the goal state of the train, with the energy-optimized velocity profile being determined by a graph based optimization algorithm, constrained by the travel time limit for the trip segment and the velocity limits along the trip segment, and providing the driving recommendation to the driver on the basis of the energy-optimized velocity profile.
A device for estimating a solidified shell thickness in a mold, comprising: an input device configured to receive an input of measurement results of a temperature and components of molten steel in a tundish of continuous casting facilities, measurement results of a width, a thickness, and a casting speed of a cast slab casted in the continuous casting facilities, and molten steel flow rate distribution in a mold; a model database configured to store a model expression and a parameter related to solidification reaction of molten steel in the mold of the continuous casting facilities; a convertor configured to convert a molten steel flow rate in the mold input to the input device into a heat conductivity parameter; and a heat transfer model calculator configured to estimate a solidified shell thickness in the mold based on temperature distribution of the mold and steel in the mold calculated by solving a three-dimensional transient heat conduction equation using the measurement results of a temperature and components of molten steel in the tundish of the continuous casting facilities, the measurement results of a width, a thickness, and a casting speed of a cast slab casted in the continuous casting facilities, the model expression, the parameter, and the heat conductivity parameter calculated by the convertor, wherein the convertor is configured to convert a molten steel flow rate in a region having a temperature higher than a solidus temperature of molten steel and lower than a liquidus temperature of molten steel into a heat conductivity parameter. an input device configured to receive an input of measurement results of a temperature and components of molten steel in a tundish of continuous casting facilities, measurement results of a width, a thickness, and a casting speed of a cast slab casted in the continuous casting facilities, and molten steel flow rate distribution in a mold; a model database configured to store a model expression and a parameter related to solidification reaction of molten steel in the mold of the continuous casting facilities; a convertor configured to convert a molten steel flow rate in the mold input to the input device into a heat conductivity parameter; and a heat transfer model calculator configured to estimate a solidified shell thickness in the mold based on temperature distribution of the mold and steel in the mold calculated by solving a three-dimensional transient heat conduction equation using the measurement results of a temperature and components of molten steel in the tundish of the continuous casting facilities, the measurement results of a width, a thickness, and a casting speed of a cast slab casted in the continuous casting facilities, the model expression, the parameter, and the heat conductivity parameter calculated by the convertor,
A method for supporting distributed transactions in a middleware machine environment in which one or more peer nodes are interconnected via different subnets, comprising: initiating, via a peer node, a distributed transaction with one or more remote peer nodes, each of which is associated with multiple network addresses; verifying, via the peer node, that the one or more remote peer nodes all have a same view of a system configuration, the system configuration including at least one of: one or more unique names associated with each peer node, a list of networks, and internet protocol, IP, addresses to reach each peer node, wherein the verifying comprises: obtaining, by a verifying module of the peer node, a system configuration from a network manager of the peer node and a system configuration from each of the one or more remote peer nodes, and comparing, by the verifying module of the peer node, the system configurations of the peer node and the one or more remote peer nodes; and executing, once it has been successfully verified that that the one or more remote peer nodes all have a same view of a system configuration, the distributed transaction via the multiple network addresses associated with the one or more remote peer nodes. initiating, via a peer node, a distributed transaction with one or more remote peer nodes, each of which is associated with multiple network addresses; verifying, via the peer node, that the one or more remote peer nodes all have a same view of a system configuration, the system configuration including at least one of: one or more unique names associated with each peer node, a list of networks, and internet protocol, IP, addresses to reach each peer node, wherein the verifying comprises: obtaining, by a verifying module of the peer node, a system configuration from a network manager of the peer node and a system configuration from each of the one or more remote peer nodes, and comparing, by the verifying module of the peer node, the system configurations of the peer node and the one or more remote peer nodes; and obtaining, by a verifying module of the peer node, a system configuration from a network manager of the peer node and a system configuration from each of the one or more remote peer nodes, and comparing, by the verifying module of the peer node, the system configurations of the peer node and the one or more remote peer nodes; and executing, once it has been successfully verified that that the one or more remote peer nodes all have a same view of a system configuration, the distributed transaction via the multiple network addresses associated with the one or more remote peer nodes.
Base cabinet for vivariums, in particular aquariums, having lateral walls, characterized in that at least one lateral wall has a recess and at least one first magnetic closure element disposed adjacent to the recess, wherein the base cabinet comprises at least one panel element which is able to be inserted into the recess and in an installed position at least partially closes the recess and has at least one second magnetic closure element, wherein the second magnetic closure element in the installed position is disposed so as to correspond to the first magnetic closure element in such a way that the panel element is held and able to be fixed in the recess exclusively by magnetic forces acting between the first magnetic closure element and the second magnetic closure element, wherein the first magnetic closure element is embedded in an end face of the lateral wall delimiting the recess, and the second magnetic closure element is embedded in a side of the panel element that in the installed situation of the panel element faces the end face of the lateral wall delimiting the recess, wherein the at least one panel element is able to be fixed in the recess so as to be flush with an outer surface of the base cabinet, and wherein the base cabinet does not have any delimiting stops for the panel element.
A slot offset determination method performed by a User Equipment, UE, the slot offset determination method comprising: receiving Channel State Information, CSI, report request information from a network device; determining a reference slot offset T in accordance with the CSI report request information; and determining a slot offset for a CSI reference resource in accordance with the reference slot offset T, the slot offset determination method is characterized in that, the slot offset for the CSI reference resource refers to a time difference between a slot for CSI transmitted by the UE to the network device and another slot where the CSI reference resource is located, wherein the CSI reference resource is a downlink slot, and when the slot for CSI transmitted by the UE to the network device is n, and the slot offset for the CSI reference resource is n CQI_ref, then the downlink slot for the CSI reference resource is n-n CQI_ref, wherein the determining the reference slot offset T in accordance with the CSI report request information comprises: determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time. receiving Channel State Information, CSI, report request information from a network device; determining a reference slot offset T in accordance with the CSI report request information; and determining a slot offset for a CSI reference resource in accordance with the reference slot offset T, the slot offset determination method is characterized in that, the slot offset for the CSI reference resource refers to a time difference between a slot for CSI transmitted by the UE to the network device and another slot where the CSI reference resource is located, wherein the CSI reference resource is a downlink slot, and when the slot for CSI transmitted by the UE to the network device is n, and the slot offset for the CSI reference resource is n CQI_ref, then the downlink slot for the CSI reference resource is n-n CQI_ref, wherein the determining the reference slot offset T in accordance with the CSI report request information comprises: determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time. determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time.
A system for determining a target position in a gas turbine engine, comprising: a first transmitter that transmits a first optical signal towards a target; a plurality of receivers that receive the first optical signal after the first optical signal is reflected by the target and each provides a respective received optical signal; at least one photodetector (306; 306a, 306b) that receives the received optical signals and provides at least a first electrical signal; and a processor that receives the first electrical signal to compute a position of the target relative to a baseline position based on: a first position of a first receiver of the plurality of receivers; a second position of a second receiver of the plurality of receivers; and the first electrical signal, wherein the gas turbine engine extends along a longitudinal axial centerline, wherein the first position corresponds to a first axial position relative to the centerline, and wherein the second position corresponds to a second axial position relative to the centerline, characterised in that the second axial position is different from the first axial position. a first transmitter that transmits a first optical signal towards a target; a plurality of receivers that receive the first optical signal after the first optical signal is reflected by the target and each provides a respective received optical signal; at least one photodetector (306; 306a, 306b) that receives the received optical signals and provides at least a first electrical signal; and a processor that receives the first electrical signal to compute a position of the target relative to a baseline position based on: a first position of a first receiver of the plurality of receivers; a second position of a second receiver of the plurality of receivers; and the first electrical signal, wherein the gas turbine engine extends along a longitudinal axial centerline, wherein the first position corresponds to a first axial position relative to the centerline, and wherein the second position corresponds to a second axial position relative to the centerline, characterised in that the second axial position is different from the first axial position. a first position of a first receiver of the plurality of receivers; a second position of a second receiver of the plurality of receivers; and the first electrical signal, wherein the gas turbine engine extends along a longitudinal axial centerline, wherein the first position corresponds to a first axial position relative to the centerline, and wherein the second position corresponds to a second axial position relative to the centerline, characterised in that the second axial position is different from the first axial position.