mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a displacement of an anchor , the method comprising the steps of: (a) determining an initial position of the anchor; (b) determining a displacement of the anchor by i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor . (a) determining an initial position of the anchor; (b) determining a displacement of the anchor by i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor . i. measuring anchor velocity by means of a velocity sensor, in particular an ultrasonic Doppler velocity sensor, or an image processing based velocity sensor, ii. measuring at least one further physical quantity associated with the anchoring, said at least one further physical quantity being suitable to be used in deciding whether the anchor is at rest or in motion, iii. deciding whether the anchor is at rest or in motion, wherein a value of the further physical quantity is taken into account in the decision, iv. during intervals when the anchor is deemed to be in motion, integrating the velocity values over time to determine the displacement of the anchor .
A cardboard tray folded from a sheet of cardboard , wherein said cardboard tray comprises sheet portions defining a bottom wall and side walls defining a receiving space of said cardboard tray , said side walls being connected, via respective first folding lines , to said bottom wall , wherein said cardboard tray further comprises flange parts connected, via respective second folding lines , to said side walls at a side of said side walls facing away from said bottom wall , characterised in that neighbouring flange parts of said flange parts are connected to each other via a locking sheet portion of one of said neighbouring flange parts , wherein said locking sheet portion is connected, via a third folding line , to said one of said neighbouring flange parts and extends at least partly through a locking opening provided in said sheet of cardboard , which locking opening is preferably provided in the other of said neighbouring flange parts , for said connecting of said neighbouring flange parts and realizing an uninterrupted flange along a circumference of said cardboard tray , wherein said uninterrupted flange is directed away from said receiving space .
A computer-implemented method for analyzing an input text character string to identify one or more visually similar text character strings in a corpus of text character strings, the method comprising the steps, each performed by a computer system , of: (a) receiving the input text character string; (b) determining a scalar estimate for the input text character string based on a model of visually similar text characters stored in a computer storage system , said model comprising a plurality of look-alike sets of text characters, each set having an assigned numerical value for that set, and said scalar estimate being calculated at least in part using the numerical values of the one or more of said sets in which each of the plurality of text characters of the input text character string is represented; (c) identifying a set of candidate text character strings from the corpus of text character strings stored in the computer storage system by comparing the scalar estimate of the input text character string with precalculated scalar estimates of each of said text character strings in the corpus, and selecting text character strings having scalar estimates within a given range of the scalar estimate of the input text character string; (d) analyzing the input text character string with each of the candidate text character strings to determine a visual similarity score between the input text character string and each of the candidate text character strings; and (e) identifying one or more candidate text character strings deemed to be most visually similar to the input text character string based on the similarity scores. (a) receiving the input text character string; (b) determining a scalar estimate for the input text character string based on a model of visually similar text characters stored in a computer storage system , said model comprising a plurality of look-alike sets of text characters, each set having an assigned numerical value for that set, and said scalar estimate being calculated at least in part using the numerical values of the one or more of said sets in which each of the plurality of text characters of the input text character string is represented; (c) identifying a set of candidate text character strings from the corpus of text character strings stored in the computer storage system by comparing the scalar estimate of the input text character string with precalculated scalar estimates of each of said text character strings in the corpus, and selecting text character strings having scalar estimates within a given range of the scalar estimate of the input text character string; (d) analyzing the input text character string with each of the candidate text character strings to determine a visual similarity score between the input text character string and each of the candidate text character strings; and (e) identifying one or more candidate text character strings deemed to be most visually similar to the input text character string based on the similarity scores.
Use, as a bi-directional transistor, of a device comprising: three semiconductor layers ; wherein the semiconductor layers are arranged to form a 2DHG and a 2DEG separated by a polarization layer, a plurality of electrodes comprising: a first source , a second source , and at least one gate electrode arranged to vary the current flowing in either direction between the two sources via at least one of the 2DEG and the 2DHG. three semiconductor layers ; wherein the semiconductor layers are arranged to form a 2DHG and a 2DEG separated by a polarization layer, a plurality of electrodes comprising: a first source , a second source , and at least one gate electrode arranged to vary the current flowing in either direction between the two sources via at least one of the 2DEG and the 2DHG.
A fuel injector isolator for mounting a fuel injector in a bore of a fuel consuming device , said fuel injector isolator comprising: a support member which is rigid and which is annular in shape being centered about an axis such that said support member has a support member inner periphery which circumferentially surrounds said axis , said support member extending along said axis from a support member first end surface to a support member second end surface , wherein a profile of said support member inner periphery includes a concave region; and an isolation member which is resilient and compliant and which is annular in shape being centered about said axis such that said support member has an isolation member outer periphery and an isolation member inner periphery which accommodates said fuel injector therein, said isolation member being located within said support member inner periphery , said isolation member outer periphery having 1) an isolation member outer periphery upper retention surface which engages said support member first end surface , thereby fixing said isolation member relative to said support member in a first direction along said axis and 2) an isolation member outer periphery lower retention surface which extends into said concave region and engages said concave region of said support member , thereby fixing said isolation member relative to said support member in a second direction along said axis which is opposite to said first direction. a support member which is rigid and which is annular in shape being centered about an axis such that said support member has a support member inner periphery which circumferentially surrounds said axis , said support member extending along said axis from a support member first end surface to a support member second end surface , wherein a profile of said support member inner periphery includes a concave region; and an isolation member which is resilient and compliant and which is annular in shape being centered about said axis such that said support member has an isolation member outer periphery and an isolation member inner periphery which accommodates said fuel injector therein, said isolation member being located within said support member inner periphery , said isolation member outer periphery having 1) an isolation member outer periphery upper retention surface which engages said support member first end surface , thereby fixing said isolation member relative to said support member in a first direction along said axis and 2) an isolation member outer periphery lower retention surface which extends into said concave region and engages said concave region of said support member , thereby fixing said isolation member relative to said support member in a second direction along said axis which is opposite to said first direction.
A user equipment configured for connectivity involving simultaneous connection to a master communication apparatus (5-1) and to a secondary communication apparatus (5-2), the user equipment comprising: means for deriving a security key of the master communication apparatus (5-1); means for deriving, using the derived security key of the master communication apparatus, at least one control plane security key for control plane communication between the user equipment and the master communication apparatus (5-1); means for deriving, using the derived security key of the master communication apparatus (5-1), a security key of the secondary communication apparatus (5-2), while establishing the connectivity; means for deriving, using the derived security key of the secondary communication apparatus, a user plane security key; and means for using the derived user plane security key for user plane communication between the user equipment and the secondary communication apparatus (5-2). means for deriving a security key of the master communication apparatus (5-1); means for deriving, using the derived security key of the master communication apparatus, at least one control plane security key for control plane communication between the user equipment and the master communication apparatus (5-1); means for deriving, using the derived security key of the master communication apparatus (5-1), a security key of the secondary communication apparatus (5-2), while establishing the connectivity; means for deriving, using the derived security key of the secondary communication apparatus, a user plane security key; and means for using the derived user plane security key for user plane communication between the user equipment and the secondary communication apparatus (5-2).
A detecting device for detecting a fault in a transformer of a wind turbine , wherein the transformer transforms a lower voltage, which is output from a generator of the wind turbine at a low voltage side of the transformer , to a higher voltage, which is output from the transformer at a high voltage side, wherein the detecting device comprises: a voltage detection device configured to detect a voltage at a first node at the low voltage side of the transformer , wherein the detecting device is configured to detect the fault in the transformer based on the detected voltage; wherein the detecting device comprises a logic circuit, characterized in that the detecting device is configured to detect the fault in the transformer if the logic circuit detects at least one of the following conditions: an open phase at the low voltage side if the voltage detection device detects a zero-sequence voltage and a voltage unbalance; and an open phase at the high voltage side if the voltage detection device detects no zero-sequence voltage and detects a voltage unbalance. a voltage detection device configured to detect a voltage at a first node at the low voltage side of the transformer , wherein the detecting device is configured to detect the fault in the transformer based on the detected voltage; wherein the detecting device comprises a logic circuit, characterized in that the detecting device is configured to detect the fault in the transformer if the logic circuit detects at least one of the following conditions: an open phase at the low voltage side if the voltage detection device detects a zero-sequence voltage and a voltage unbalance; and an open phase at the high voltage side if the voltage detection device detects no zero-sequence voltage and detects a voltage unbalance. an open phase at the low voltage side if the voltage detection device detects a zero-sequence voltage and a voltage unbalance; and an open phase at the high voltage side if the voltage detection device detects no zero-sequence voltage and detects a voltage unbalance.
A process for preparing an imide functionalized olefin multiblock interpolymer, said process comprising: A) grafting onto the backbone of an olefin multiblock interpolymer, in a melt reaction, at least one compound of the following formula (IV) to form a grafted olefin multiblock interpolymer: and B) thermally treating the grafted olefin multiblock interpolymer to form the imide functionalized olefin multiblock interpolymer, and wherein R 1 and R 2 are, independently, either hydrogen or a C 1 -C 20 hydrocarbyl radical, which is linear or branched; R 3 is hydrogen or a C 1 -C 20 hydrocarbyl radical, which is linear or branched; R 4 is a divalent hydrocarbyl radical, which is linear or branched; X is OH or NHR 5 , where R 5 is a hydrocarbyl radical, which is linear or branched, or a hydroxyethyl group. A) grafting onto the backbone of an olefin multiblock interpolymer, in a melt reaction, at least one compound of the following formula (IV) to form a grafted olefin multiblock interpolymer: and B) thermally treating the grafted olefin multiblock interpolymer to form the imide functionalized olefin multiblock interpolymer, and wherein R 1 and R 2 are, independently, either hydrogen or a C 1 -C 20 hydrocarbyl radical, which is linear or branched; R 3 is hydrogen or a C 1 -C 20 hydrocarbyl radical, which is linear or branched; R 4 is a divalent hydrocarbyl radical, which is linear or branched; X is OH or NHR 5 , where R 5 is a hydrocarbyl radical, which is linear or branched, or a hydroxyethyl group.
Storage device for storing electronic components, with a housing , storage spaces in the housing for storing the components, a handling device for handling the components, wherein the handling device stores the components at the storage spaces allocated to the components on deposition and picks them up again from the storage spaces on retrieval, and a control computer which controls the handling device , wherein the storage device comprises at least one dehumidifier which dehumidifies the atmosphere in the housing , characterised in that the storage spaces are each associated with one of at least two storage zones, wherein the storage zones differ in respect of the humidity of the atmosphere and/or the temperature in the respective storage zone, wherein the first storage zone is formed by a first drawer module , while the second storage zone is formed by a second drawer module , wherein the storage spaces of the second storage zone are located in an inner housing , which is located inside the outer housing of the storage device, wherein the atmosphere inside the second storage zone is closed off relative to the dehumidified atmosphere of the first storage zone.
Leading edge high lift device comprising a deployment system for adjusting the leading edge high lift device , in particular a slat, between a retracted position, in which, in use, the high lift device is retracted with respect to an airfoil , and at least one deployed position, in which, in use, the high lift device is deployed with respect to the airfoil , comprising: - at least one actuation unit that is configured to actuate the high lift device between the retracted position and the at least one deployed position; - at least one guidance unit that is configured to guide the high lift device during adjustment between the retracted position and the at least one deployed position along an adjustment path; - wherein the at least one guidance unit is independent from the actuation unit ; - wherein the at least one guidance unit comprises a track arranged for fixedly mounting to the airfoil and a carriage for cooperation with the track , wherein the carriage is mounted to the high lift device and is movable with respect to the track ; - characterised in that the adjustment path is solely determined by the shape of the track ; - and further comprising multiple guidance units , wherein a single one of the guidance units is provided as a master guidance unit of which the carriage is mounted to the high-lift device in a way that does not allow any translational movement of the high-lift device with respect to the guidance unit , and wherein the other guidance units are provided as slave guidance units of which the carriage is mounted to the high-lift device in a way that allows some relative movement of the high-lift device with respect to the guidance unit in span wise direction only. - at least one actuation unit that is configured to actuate the high lift device between the retracted position and the at least one deployed position; - at least one guidance unit that is configured to guide the high lift device during adjustment between the retracted position and the at least one deployed position along an adjustment path; - wherein the at least one guidance unit is independent from the actuation unit ; - wherein the at least one guidance unit comprises a track arranged for fixedly mounting to the airfoil and a carriage for cooperation with the track , wherein the carriage is mounted to the high lift device and is movable with respect to the track ; - characterised in that the adjustment path is solely determined by the shape of the track ; - and further comprising multiple guidance units , wherein a single one of the guidance units is provided as a master guidance unit of which the carriage is mounted to the high-lift device in a way that does not allow any translational movement of the high-lift device with respect to the guidance unit , and wherein the other guidance units are provided as slave guidance units of which the carriage is mounted to the high-lift device in a way that allows some relative movement of the high-lift device with respect to the guidance unit in span wise direction only.
A processor-implemented method with battery state estimation, comprising: estimating a current state of charge, SOC, of a target battery by correcting a first electrochemical model corresponding to the target battery using a first voltage difference between a measured voltage of the target battery and an estimated voltage of the target battery that is estimated by the first electrochemical model; estimating an end SOC of the target battery by correcting a second electrochemical model using a second voltage difference between an estimated voltage of a virtual battery that is estimated by the second electrochemical model and a preset voltage; and estimating a relative SOC, RSOC, of the target battery based on the current SOC and the end SOC of the target battery, wherein the second electrochemical model is based on the virtual battery corresponding to the target battery being discharged to reach the preset voltage. estimating a current state of charge, SOC, of a target battery by correcting a first electrochemical model corresponding to the target battery using a first voltage difference between a measured voltage of the target battery and an estimated voltage of the target battery that is estimated by the first electrochemical model; estimating an end SOC of the target battery by correcting a second electrochemical model using a second voltage difference between an estimated voltage of a virtual battery that is estimated by the second electrochemical model and a preset voltage; and estimating a relative SOC, RSOC, of the target battery based on the current SOC and the end SOC of the target battery, wherein the second electrochemical model is based on the virtual battery corresponding to the target battery being discharged to reach the preset voltage.
A method for wireless communications by a user equipment, UE, comprising: monitoring for a first physical downlink control channel, PDCCH, order for a first physical random access channel, PRACH, transmission, wherein a PDCCH order includes resource allocation information for PRACH transmissions; determining a transmit power for the first PRACH transmission, based on a retransmission index of the first PRACH transmission; transmitting the first PRACH at the determined transmit power; and after transmitting the first PRACH, monitoring for a second PDCCH order before transmitting a second PRACH. monitoring for a first physical downlink control channel, PDCCH, order for a first physical random access channel, PRACH, transmission, wherein a PDCCH order includes resource allocation information for PRACH transmissions; determining a transmit power for the first PRACH transmission, based on a retransmission index of the first PRACH transmission; transmitting the first PRACH at the determined transmit power; and after transmitting the first PRACH, monitoring for a second PDCCH order before transmitting a second PRACH.
A refrigerator comprising a body ; a compartment which is disposed in the body and wherein the foodstuffs are placed; and at least one UV light source which is disposed in the compartment and which sterilizes the foodstuffs loaded into the compartment , a control unit which controls the operational parameters of the UV light source such as intensity, time, etc., and a wireless communication module which communicates with the control unit so as to convey the operational parameters of the sterilization process of the UV light source to the user via a mobile device characterized by a sensor which measures the weight so as to detect the amount of the foodstuffs in the compartment , and the control unit which is configured to, according to the data received from the sensor , warn the user if the fullness rate of the compartment reaches a level predetermined by the producer which will prevent the efficient operation of the UV light source .