mhurhangee/patent-ind-claim-en huggingface dataset:
A two-dimensional antenna array, comprising: a reflection panel , at least two column antenna arrays , at least one common feeding network , and at least two array feeding networks , wherein the at least two column antenna arrays are on the reflection panel , each of the at least two column antenna arrays comprises at least one independent radiation unit and at least one common radiation unit , each of the at least two column antenna arrays is corresponding to one array feeding network , each independent radiation unit in each of the at least two column antenna arrays is connected to the array feeding network corresponding to the at least two column antenna arrays , each common radiation unit in each of the at least two column antenna arrays is connected to the common feeding network , and the common feeding network is connected to the array feeding networks corresponding to each of the at least two column antenna arrays , wherein the at least two column antenna arrays are neighboring antenna arrays, and wherein the at least two column antenna arrays are arranged parallel to each other along an axis of the reflection panel. a reflection panel , at least two column antenna arrays , at least one common feeding network , and at least two array feeding networks , wherein the at least two column antenna arrays are on the reflection panel , each of the at least two column antenna arrays comprises at least one independent radiation unit and at least one common radiation unit , each of the at least two column antenna arrays is corresponding to one array feeding network , each independent radiation unit in each of the at least two column antenna arrays is connected to the array feeding network corresponding to the at least two column antenna arrays , each common radiation unit in each of the at least two column antenna arrays is connected to the common feeding network , and the common feeding network is connected to the array feeding networks corresponding to each of the at least two column antenna arrays , wherein the at least two column antenna arrays are neighboring antenna arrays, and wherein the at least two column antenna arrays are arranged parallel to each other along an axis of the reflection panel.
A compound of Formula I wherein R1 is selected from the group consisting of C 1 -C 6 alkyl, CF 3 , CH 2 CF 3 , CF 2 CHF 2 , C 3 -C 8 cycloalkyl, wherein said C 3 -C 8 cycloalkyl may be substituted with 1 or 2 F, CHF 2 or CF 3 , and R2 is H, C 1 -C 6 alkyl or CF 3 ; or R1 and R2 combine to form C 3 -C 5 cycloalkyl optionally substituted with 1 or 2 F, CHF 2 or CF 3 ; R3 is C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl, said C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl may optionally substituted with 1 or 2 F; R4 is selected from the group consisting of OCF 3 , OCH 2 CF 3 or OCHF 2 . R1 is selected from the group consisting of C 1 -C 6 alkyl, CF 3 , CH 2 CF 3 , CF 2 CHF 2 , C 3 -C 8 cycloalkyl, wherein said C 3 -C 8 cycloalkyl may be substituted with 1 or 2 F, CHF 2 or CF 3 , and R2 is H, C 1 -C 6 alkyl or CF 3 ; or R1 and R2 combine to form C 3 -C 5 cycloalkyl optionally substituted with 1 or 2 F, CHF 2 or CF 3 ; R3 is C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl, said C 1 -C 3 alkyl or CH 2 O-C 1-3 alkyl may optionally substituted with 1 or 2 F; R4 is selected from the group consisting of OCF 3 , OCH 2 CF 3 or OCHF 2 .
An antibody for use in the treatment of a food allergy in a subject in need thereof, said antibody comprising: a. a heavy chain having SEQ ID NO: 42; and b. a light chain heaving SEQ ID NO: 40. a. a heavy chain having SEQ ID NO: 42; and b. a light chain heaving SEQ ID NO: 40.
An apparatus configured for wireless communication, operable in a long-term evolution, LTE, network utilizing a time-division duplex, TDD, carrier comprising a plurality of TDD subframes (501; 551; 701; 751; 801; 851), the apparatus comprising: a transceiver ; a memory ; and at least one processor communicatively coupled to the transceiver and the memory , wherein the at least one processor is configured to: utilize the transceiver to communicate one or more pilot or null tones in a data portion of a first TDD subframe (501; 551; 701; 751; 801; 851), wherein the one or more pilot or null tones are used to capture interference from a second TDD subframe (501; 551; 701; 751; 801; 851) communicated by another apparatus; wherein a TDD subframe (501; 551; 701; 751; 801; 851) is a subframe providing communication in both uplink, UL, and downlink, DL, direction; wherein the first TDD subframe (501; 551; 701; 751; 801; 851) is a DL-centric TDD subframe (501; 701; 801) and the second TDD subframe (501; 551; 701; 751; 801; 851) is an UL-centric TDD subframe (551; 751; 851); and wherein the at least one processor is further configured to: utilize the transceiver to receive signaling comprising information configured to indicate whether to adjust a communication of a user equipment, UE,-specific reference signal, UERS, in the DL-centric TDD subframe (501; 701; 801) to a time that is aligned with a time at which a demodulation reference signal, DMRS, of the UL-centric TDD subframe (551; 751; 851) is communicated by said another apparatus. a transceiver ; a memory ; and at least one processor communicatively coupled to the transceiver and the memory , wherein the at least one processor is configured to: utilize the transceiver to communicate one or more pilot or null tones in a data portion of a first TDD subframe (501; 551; 701; 751; 801; 851), wherein the one or more pilot or null tones are used to capture interference from a second TDD subframe (501; 551; 701; 751; 801; 851) communicated by another apparatus; wherein a TDD subframe (501; 551; 701; 751; 801; 851) is a subframe providing communication in both uplink, UL, and downlink, DL, direction; wherein the first TDD subframe (501; 551; 701; 751; 801; 851) is a DL-centric TDD subframe (501; 701; 801) and the second TDD subframe (501; 551; 701; 751; 801; 851) is an UL-centric TDD subframe (551; 751; 851); and wherein the at least one processor is further configured to: utilize the transceiver to receive signaling comprising information configured to indicate whether to adjust a communication of a user equipment, UE,-specific reference signal, UERS, in the DL-centric TDD subframe (501; 701; 801) to a time that is aligned with a time at which a demodulation reference signal, DMRS, of the UL-centric TDD subframe (551; 751; 851) is communicated by said another apparatus.
An apparatus comprising means for: - participating in a handshake process with a client device, the handshake process relating to sharing of a network connection of the apparatus with the client device; - responsive to the handshake process being successful, sharing the network connection with the client device, the network connection being to a service provider of the apparatus, and - after the sharing ends, recording information relating to the sharing in a blockchain, wherein the information recorded in the blockchain comprises a quantity of data conveyed over the shared connection to the client device. - participating in a handshake process with a client device, the handshake process relating to sharing of a network connection of the apparatus with the client device; - responsive to the handshake process being successful, sharing the network connection with the client device, the network connection being to a service provider of the apparatus, and - after the sharing ends, recording information relating to the sharing in a blockchain, wherein the information recorded in the blockchain comprises a quantity of data conveyed over the shared connection to the client device.
Motor vehicle latch for a movable part of a vehicle, having a locking mechanism consisting of at least a pawl and a catch , having a sensor arrangement assigned to the locking mechanism , which sensor arrangement has a stationary sensor and a sensing element arranged on the catch , the sensor generating at least two different output signals relating to the presence and absence of the sensing element in the affected region (E) of the sensor , at least one second sensing element being provided and arranged on the pawl , the first sensing element and the second sensing element being detectable by the stationary sensor, the sensor arrangement being designed as a Hall sensor, characterized in that by means of one sensor , the position (I, II, III, IV) of the catch and pawl can be detected, so that at least one pre-ratchet position (II), a main ratchet position (III) and an open position (I) of the locking mechanism can be detected, the output signal of the sensor being generated depending on the angle of rotation of the catch and/or the angle of rotation of the pawl . arranged on the pawl , the first sensing element and the second sensing element being detectable by the stationary sensor, the sensor arrangement being designed as a Hall sensor, characterized in that by means of one sensor , the position (I, II, III, IV) of the catch and pawl can be detected, so that at least one pre-ratchet position (II), a main ratchet position (III) and an open position (I) of the locking mechanism can be detected, the output signal of the sensor being generated depending on the angle of rotation of the catch and/or the angle of rotation of the pawl .
A gas diffusion electrode having a microporous layer on at least one surface of an electrical conducting porous substrate, wherein the microporous layer has at least a first microporous layer in contact with the electrical conducting porous substrate, and a second microporous layer, and the first microporous layer contains carbon black having a structure index of 3.0 or more, and the second microporous layer contains carbon black having a structure index of less than 3.0. the microporous layer has at least a first microporous layer in contact with the electrical conducting porous substrate, and a second microporous layer, and the first microporous layer contains carbon black having a structure index of 3.0 or more, and the second microporous layer contains carbon black having a structure index of less than 3.0.
A centering sub-system including a first centering element , a second centering element and a ground plate , wherein the first centering element defines a first guiding axis and is adapted to engage with a first corresponding centering element of a corresponding centering sub-system along an engaging direction (A), wherein the first centering element is configured to allow a relative movement between the first centering element and the first corresponding centering element along the first guiding axis during engaging; wherein the second centering element defines a second guiding axis and is adapted to engage with a second corresponding centering element of the corresponding centering sub-system , wherein the second centering element is configured to allow a relative movement between the second centering element and the second corresponding centering element along the second guiding axis during engaging; and wherein the first guiding axis and the second guiding axis are nonparallel, and wherein each of the first guiding axis and the second guiding axis is different from the engaging direction (A), wherein the ground plate comprises at least one receptacle that holds a centering element , and wherein the receptacle is configured to thermally decouple the centering element from the ground plate . the first centering element defines a first guiding axis and is adapted to engage with a first corresponding centering element of a corresponding centering sub-system along an engaging direction (A), wherein the first centering element is configured to allow a relative movement between the first centering element and the first corresponding centering element along the first guiding axis during engaging; wherein the second centering element defines a second guiding axis and is adapted to engage with a second corresponding centering element of the corresponding centering sub-system , wherein the second centering element is configured to allow a relative movement between the second centering element and the second corresponding centering element along the second guiding axis during engaging; and wherein the first guiding axis and the second guiding axis are nonparallel, and wherein each of the first guiding axis and the second guiding axis is different from the engaging direction (A), wherein the ground plate comprises at least one receptacle that holds a centering element , and wherein the receptacle is configured to thermally decouple the centering element from the ground plate .
A capacity control valve (V) comprising: a valve housing provided with a discharge port through which a discharge fluid at a discharge pressure (Pd) passes, a suction port through which a suction fluid at a suction pressure (Ps) passes, and a control port through which a control fluid at a control pressure (Pc) passes; a rod driven by a solenoid ; and a main valve that includes a main valve seat and a main valve body to open and close communication between the discharge port and the control port in accordance with a movement of the rod , wherein the capacity control valve (V) further comprises a CS valve that includes a CS valve seat and a CS valve body to open and close communication between the control port and the suction port , the CS valve body is disposed so as to be movable relative to the main valve body , the main valve body and the CS valve body move together in accordance with the movement of the rod while a closed state of the main valve is maintained and the capacity control valve (V) is characterized in that the CS valve body is provided with a discharge communication hole and a suction communication hole that communicate with the discharge port and the suction port , respectively. a valve housing provided with a discharge port through which a discharge fluid at a discharge pressure (Pd) passes, a suction port through which a suction fluid at a suction pressure (Ps) passes, and a control port through which a control fluid at a control pressure (Pc) passes; a rod driven by a solenoid ; and a main valve that includes a main valve seat and a main valve body to open and close communication between the discharge port and the control port in accordance with a movement of the rod , wherein the capacity control valve (V) further comprises a CS valve that includes a CS valve seat and a CS valve body to open and close communication between the control port and the suction port , the CS valve body is disposed so as to be movable relative to the main valve body , the main valve body and the CS valve body move together in accordance with the movement of the rod while a closed state of the main valve is maintained and the capacity control valve (V) is characterized in that the CS valve body is provided with a discharge communication hole and a suction communication hole that communicate with the discharge port and the suction port , respectively.
An electrode wire for electro-discharge machining, comprising a core material and a surface metal layer, a transition layer being arranged between the core material and the surface metal layer, wherein, the core material comprises a brass alloy as a main component and a balance amount of zinc and inevitable impurities; and the surface metal layer comprises zinc oxide as a main component and a balance amount of copper and inevitable impurities, a transition layer is arranged between the core material and the surface metal layer, the transition layer comprises a copper-zinc alloy as a main component, and irregular cracks are distributed on the zinc oxide layer; characterised in that the core material has a diameter of 0.65-1.48 mm, the surface metal layer has a thickness of 0.45-10.23 μm, the maximum thickness of the cracks is less than or equal to 4.5 μm, and the maximum spacing of the cracks is 17 μm.
Monoclonal antibody that specifically recognizes the sequence SEQ ID NO: 1 or SEQ ID NO: 2.
A method of receiving, via a user input back channel, UIBC, running on top of packet-based communication protocol, user input data from a wireless sink device at a wireless source device, the method comprising: receiving , by the wireless source device, a data packet from the wireless sink device, the data packet comprising a data packet header and payload data ; parsing , by the wireless source device, the data packet header for: a four-bit input category field identifying an input category for user input data contained in the payload data ; and a timestamp flag that indicates whether the data packet header includes a sixteen-bit timestamp field ; in response to the timestamp flag indicating that the data packet header does include the timestamp field , parsing, by the wireless source device, the data packet header to identify, based on a timestamp included in the timestamp field , a particular frame of video data that was displayed by the wireless sink device while the user input data was captured; and processing , by the wireless source device, the payload data based at least in part on the timestamp included in the timestamp field . receiving , by the wireless source device, a data packet from the wireless sink device, the data packet comprising a data packet header and payload data ; parsing , by the wireless source device, the data packet header for: a four-bit input category field identifying an input category for user input data contained in the payload data ; and a timestamp flag that indicates whether the data packet header includes a sixteen-bit timestamp field ; a four-bit input category field identifying an input category for user input data contained in the payload data ; and a timestamp flag that indicates whether the data packet header includes a sixteen-bit timestamp field ; in response to the timestamp flag indicating that the data packet header does include the timestamp field , parsing, by the wireless source device, the data packet header to identify, based on a timestamp included in the timestamp field , a particular frame of video data that was displayed by the wireless sink device while the user input data was captured; and processing , by the wireless source device, the payload data based at least in part on the timestamp included in the timestamp field .
A compound selected from clemizole , or a pharmaceutically acceptable salt thereof, for use in a method of treating an epilepsy disorder, said method comprising administering to a subject in need thereof, a therapeutically effective amount of the compound, wherein the pharmaceutically acceptable salt is an inorganic acid addition salt of clemizole, a quaternary ammonium salt of clemizole or an organic acid addition salt of clemizole selected from a maleate, acetate, citrate, fumarate, proprionate, isobutyrate, undecylate, malate, malonate, suberate, lactate, mandelate, phthalate, oxalate, benzenesulfonate, p-tolylsulfonate, methanesulfonate, tartrate, succinate, benzoate and a clemizole salt with an amino acid.
A device for detecting alternating-current components i AC of an electric current i ACDC flowing in a direct-current circuit , comprising: - an inductor arranged in the direct-current circuit , - an AC path arranged electrically in parallel with the inductor , wherein the AC path comprises a series circuit made up of a capacitor and a primary side winding of a transformer , - a voltage measuring device , characterized in that a secondary side winding (5") of the transformer is connected to the voltage measuring device via a low-pass filter circuit , wherein the low-pass filter circuit is configured for linearization of the alternating-current components i AC , such that a linear transformation of the alternating-current components i AC within the direct-current circuit into alternating-currents measured by the voltage measuring device is obtained in a predefined frequency range. - an inductor arranged in the direct-current circuit , - an AC path arranged electrically in parallel with the inductor , wherein the AC path comprises a series circuit made up of a capacitor and a primary side winding of a transformer , - a voltage measuring device ,
System comprising a controller connected via a single-channel data bus to two electrical devices designed as bus subscribers, the controller being designed as a further bus subscriber, wherein the first electrical device has a first logic unit and a first computer unit, wherein the second electrical device has a second logic unit and a second computer unit, wherein a first circuit part of the first electrical device is designed in such a way as to be able to be redundantly switched off both by the first logic unit and by the second logic unit, wherein a two-channel emergency stop switch is arranged in the controller, or wherein a two-channel emergency stop switch is connected to the controller, wherein the system is a drive system and the two electrical devices are each designed as converters for powering a respective electric motor, wherein a device designed as a bus subscriber and having a two-channel switch is configured to transmit a two-channel control command, namely an emergency stop command, via the data bus to the two logic units, wherein the first logic unit is configured to generate, as a function of the first channel of the control command, a signal voltage, namely a switch-off signal voltage, which is electrically forwarded to the first circuit part, wherein the second logic unit is configured to forward the second channel of the control command via the data bus to the first computer unit, wherein the first computer unit is configured to generate, as a function of this second channel of the control command, a signal voltage, namely a switch-off signal voltage, which is electrically forwarded to the first circuit part. wherein the first electrical device has a first logic unit and a first computer unit, wherein the second electrical device has a second logic unit and a second computer unit, wherein a first circuit part of the first electrical device is designed in such a way as to be able to be redundantly switched off both by the first logic unit and by the second logic unit, wherein a two-channel emergency stop switch is arranged in the controller, or wherein a two-channel emergency stop switch is connected to the controller, wherein the system is a drive system and the two electrical devices are each designed as converters for powering a respective electric motor, wherein a device designed as a bus subscriber and having a two-channel switch is configured to transmit a two-channel control command, namely an emergency stop command, via the data bus to the two logic units, wherein the first logic unit is configured to generate, as a function of the first channel of the control command, a signal voltage, namely a switch-off signal voltage, which is electrically forwarded to the first circuit part, wherein the second logic unit is configured to forward the second channel of the control command via the data bus to the first computer unit, wherein the first computer unit is configured to generate, as a function of this second channel of the control command, a signal voltage, namely a switch-off signal voltage, which is electrically forwarded to the first circuit part.