mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor light emitting device comprising: a conductive supporting member ; an N-type semiconductor layer on the conductive supporting member ; an electrode layer disposed between the conductive supporting member and the N-type semiconductor layer ; an active layer on the N-type semiconductor layer ; a P-type semiconductor layer on the active layer ; an ohmic contact layer on the P-type semiconductor layer and forming an ohmic contact with the P-type semiconductor layer ; and an electrode on the ohmic contact layer , wherein the conductive supporting member and the electrode layer are formed of a metal material, wherein the N-type semiconductor layer is formed of at least one of GaN, InAlGaN, or AlGaN, wherein the N-type semiconductor layer comprises an upper part around its outer circumference, which is exposed by mesa etching of the ohmic contact layer , the P-type semiconductor layer and the active layer , wherein a surface of the upper part of the N-type semiconductor layer includes a Ga-face surface. a conductive supporting member ; an N-type semiconductor layer on the conductive supporting member ; an electrode layer disposed between the conductive supporting member and the N-type semiconductor layer ; an active layer on the N-type semiconductor layer ; a P-type semiconductor layer on the active layer ; an ohmic contact layer on the P-type semiconductor layer and forming an ohmic contact with the P-type semiconductor layer ; and an electrode on the ohmic contact layer , wherein the conductive supporting member and the electrode layer are formed of a metal material, wherein the N-type semiconductor layer is formed of at least one of GaN, InAlGaN, or AlGaN, wherein the N-type semiconductor layer comprises an upper part around its outer circumference, which is exposed by mesa etching of the ohmic contact layer , the P-type semiconductor layer and the active layer , wherein a surface of the upper part of the N-type semiconductor layer includes a Ga-face surface.
A system to actuate one or more functions associated with one or more buttons on a remote for a vehicle based on command signals generated by a mobile device, the system comprising: a housing configured to securely receive the remote; the mobile device ; a user interface included on the mobile device, wherein command signals are generated by the mobile device based on interaction with the user interface; a controller located within the housing and configured to receive command signals from the mobile device; a button actuator in the housing and operable by the controller based upon the received command signal from the mobile device, wherein the button actuator is operable to engage one of the buttons of the remote such that the remote generates an RF remote command signal, wherein the controller receives the RF remote command signal and converts the RF remote command signal into a digital message, and wherein the housing and button actuator are locatable for use outside of a communication range of the vehicle; a transmitter operable by the controller to transmit the digital message to a remote server platform; a proxy remote positionable within the communication range of the vehicle to receive the digital message, wherein the housing is located outside a communication range of the vehicle and separate from the proxy remote, and wherein the proxy remote is separate from the mobile device , convert the digital message into a RF vehicle command signal and transmit the RF vehicle command signal to the vehicle. a housing configured to securely receive the remote; the mobile device ; a user interface included on the mobile device, wherein command signals are generated by the mobile device based on interaction with the user interface; a controller located within the housing and configured to receive command signals from the mobile device; a button actuator in the housing and operable by the controller based upon the received command signal from the mobile device, wherein the button actuator is operable to engage one of the buttons of the remote such that the remote generates an RF remote command signal, wherein the controller receives the RF remote command signal and converts the RF remote command signal into a digital message, and wherein the housing and button actuator are locatable for use outside of a communication range of the vehicle; a transmitter operable by the controller to transmit the digital message to a remote server platform; a proxy remote positionable within the communication range of the vehicle to receive the digital message, wherein the housing is located outside a communication range of the vehicle and separate from the proxy remote, and wherein the proxy remote is separate from the mobile device , convert the digital message into a RF vehicle command signal and transmit the RF vehicle command signal to the vehicle.
Combined track conditioning unit for a rail vehicle, the track conditioning unit having a combined dispensing apparatus - with an outflow opening , integrated in the front region of the dispensing apparatus , for applying a gaseous drying medium (L) to a rail , - with a gritting material outlet unit , integrated in the rear region of the dispensing apparatus , for applying a gritting material (M) to the rail , - wherein this arrangement has the effect that a portion of track to be travelled over is first dried, then has a gritting material applied to it and is finally travelled over by a wheel of the rail vehicle with an increased adhesion value between the wheel and rail. - with an outflow opening , integrated in the front region of the dispensing apparatus , for applying a gaseous drying medium (L) to a rail , - with a gritting material outlet unit , integrated in the rear region of the dispensing apparatus , for applying a gritting material (M) to the rail , - wherein this arrangement has the effect that a portion of track to be travelled over is first dried, then has a gritting material applied to it and is finally travelled over by a wheel of the rail vehicle with an increased adhesion value between the wheel and rail.
An engine cooling device comprising: a water pump that controls a flow rate of cooling water for cooling an engine ; a radiator ; a first cooling water channel that passes the cooling water to the engine through the radiator ; a second cooling water channel that passes the cooling water to the engine without going through the radiator ; a solenoid valve provided in the second cooling water channel , the solenoid valve including a valve body , the valve body being moved by electric suction force to open and close the solenoid valve ; and a control unit configured to execute control, at a time of closing the solenoid valve in the second cooling water channel , to close the solenoid valve so as to cut off passage of the cooling water in the second cooling water channel by moving the valve body in a valve closing direction with at least electric suction force while the cooling water is passing at a decreased flow rate, the decreased flow rate being achieved by driving the water pump so as to decrease the flow rate of the cooling water, characterised in that the control unit is configured to execute control to close the solenoid valve in the second cooling water channel by acquiring a valve-closable maximum speed of the water pump based on at least flow resistance of the cooling water and by moving the valve body while the water pump is driven at a speed equal to or less than the valve-closable maximum speed. a water pump that controls a flow rate of cooling water for cooling an engine ; a radiator ; a first cooling water channel that passes the cooling water to the engine through the radiator ; a second cooling water channel that passes the cooling water to the engine without going through the radiator ; a solenoid valve provided in the second cooling water channel , the solenoid valve including a valve body , the valve body being moved by electric suction force to open and close the solenoid valve ; and a control unit configured to execute control, at a time of closing the solenoid valve in the second cooling water channel , to close the solenoid valve so as to cut off passage of the cooling water in the second cooling water channel by moving the valve body in a valve closing direction with at least electric suction force while the cooling water is passing at a decreased flow rate, the decreased flow rate being achieved by driving the water pump so as to decrease the flow rate of the cooling water, characterised in that the control unit is configured to execute control to close the solenoid valve in the second cooling water channel by acquiring a valve-closable maximum speed of the water pump based on at least flow resistance of the cooling water and by moving the valve body while the water pump is driven at a speed equal to or less than the valve-closable maximum speed.
An immunogenic composition comprising a. an attenuated Mycoplasma bovis bacterium strain deposited with the ATCC under accession numbers PTA-8694, PTA-8695, or PTA-8696, and combinations thereof; and b. one or more further immunologically active component(s) effective for the treatment and/or prophylaxis of microbiological infection in cattle caused by a cattle pathogen other than Mycoplasma bovis. a. an attenuated Mycoplasma bovis bacterium strain deposited with the ATCC under accession numbers PTA-8694, PTA-8695, or PTA-8696, and combinations thereof; and b. one or more further immunologically active component(s) effective for the treatment and/or prophylaxis of microbiological infection in cattle caused by a cattle pathogen other than Mycoplasma bovis.
A method, comprising: - receiving or configuring a plurality of sets of radio resource configurations for communicating data via a first logical channel ; - determining a configuration of duplication ; characterized by - activating, based on a criterion associated with the configuration of duplication, one set of radio resource configurations from the plurality of sets of radio resource configurations for communicating said data via the first logical channel, wherein said criterion associated with the configuration of duplication comprises a number of copies of the data to be communicated . - receiving or configuring a plurality of sets of radio resource configurations for communicating data via a first logical channel ; - determining a configuration of duplication ; characterized by - activating, based on a criterion associated with the configuration of duplication, one set of radio resource configurations from the plurality of sets of radio resource configurations for communicating said data via the first logical channel, wherein said criterion associated with the configuration of duplication comprises a number of copies of the data to be communicated .
A spectrometer comprising: an ion modifier disposed in a drift chamber that has a gate that is configured to control entry of ions to the drift chamber, the ion modifier being configured to modify a portion of the ions that enter the drift chamber; a detector; and a controller , communicatively coupled to the ion modifier and configured to synchronize operation of the ion modifier with opening of the gate to select a portion of ions, formed from a sample to be modified and to select a group of other ions based on their time of flight, and to prevent the group of other ions from passing toward the detector by neutralizing the group of other ions. an ion modifier disposed in a drift chamber that has a gate that is configured to control entry of ions to the drift chamber, the ion modifier being configured to modify a portion of the ions that enter the drift chamber; a detector; and a controller , communicatively coupled to the ion modifier and configured to synchronize operation of the ion modifier with opening of the gate to select a portion of ions, formed from a sample to be modified and to select a group of other ions based on their time of flight, and to prevent the group of other ions from passing toward the detector by neutralizing the group of other ions.
Method for testing a voltage transformer , comprising the steps a) emulating the voltage transformer by means of an equivalent circuit , b) applying a test signal to the voltage transformer , c) detecting a test response of the voltage transformer in dependence on the test signal and automatically determining values for components of the equivalent circuit in dependence on the test response of the voltage transformer , d) automatically determining an equivalent-circuit -related accuracy of the voltage transformer on the basis of the test response and on the basis of equivalent circuit thus provided with the values for the components, and e) automatically determining an operating-condition-related accuracy of the voltage transformer from the equivalent-circuit -related accuracy, wherein in step d), an equivalent-circuit -related voltage deviation and/or an equivalent-circuit -related phase displacement of the voltage transformer are determined for different burdens, operating voltages and/or operating frequencies of the voltage transformer , and are converted in step e) into a corresponding voltage deviation or a corresponding phase displacement for corresponding operating conditions of the voltage transformer . a) emulating the voltage transformer by means of an equivalent circuit , b) applying a test signal to the voltage transformer , c) detecting a test response of the voltage transformer in dependence on the test signal and automatically determining values for components of the equivalent circuit in dependence on the test response of the voltage transformer , d) automatically determining an equivalent-circuit -related accuracy of the voltage transformer on the basis of the test response and on the basis of equivalent circuit thus provided with the values for the components, and e) automatically determining an operating-condition-related accuracy of the voltage transformer from the equivalent-circuit -related accuracy, wherein in step d), an equivalent-circuit -related voltage deviation and/or an equivalent-circuit -related phase displacement of the voltage transformer are determined for different burdens, operating voltages and/or operating frequencies of the voltage transformer , and are converted in step e) into a corresponding voltage deviation or a corresponding phase displacement for corresponding operating conditions of the voltage transformer .
An insert for being embedded in a silicone hydrogel contact lens, comprising a crosslinked polymeric material, which comprises: repeating units of said at least one silicone-containing polymerizable material; repeating units of at least one aryl acrylic monomer; and repeating units of at least one vinylic crosslinking agent, wherein the sum of the amounts of components and of the crosslinked polymeric material is at least about 70% by weight relative to the total weight of the crosslinked polymeric material, wherein the crosslinked polymeric material in dry state has a glass transition temperature of greater than about 28°C, wherein the crosslinked polymeric material in fully hydrated state has a water content of less than about 5% by weight, an oxygen permeability of at least about 60 barrers, and a refractive index of at least about 1.45, wherein the glass transition temperature, the water content in fully hydrated state, the oxygen permeability and the refractive index are measured as described in Example 1. repeating units of said at least one silicone-containing polymerizable material; repeating units of at least one aryl acrylic monomer; and repeating units of at least one vinylic crosslinking agent,
A method for wireless communication, comprising: receiving, by a wireless node, a first message that includes a set of access control parameters from a network node, the set of access control parameters comprising unified access control, UAC, parameters that include a listing of access categories and a corresponding barring information set, the set of access control parameters further comprising a list of assistance information for access category selection for a number of networks sharing a cell, wherein a size of the list of assistance information for access category selection is equal to the number of networks sharing the cell, wherein each entry of the list of assistance information for access category selection is associated with a corresponding network in the number of networks sharing the cell, and wherein a value of an entry of the list of assistance information for access category selection corresponds to Access Category 1 not being configured for the corresponding network; and performing, by the wireless node, an access barring check to determine whether a certain access attempt is allowed using the set of access control parameters. receiving, by a wireless node, a first message that includes a set of access control parameters from a network node, the set of access control parameters comprising unified access control, UAC, parameters that include a listing of access categories and a corresponding barring information set, the set of access control parameters further comprising a list of assistance information for access category selection for a number of networks sharing a cell, wherein a size of the list of assistance information for access category selection is equal to the number of networks sharing the cell, wherein each entry of the list of assistance information for access category selection is associated with a corresponding network in the number of networks sharing the cell, and wherein a value of an entry of the list of assistance information for access category selection corresponds to Access Category 1 not being configured for the corresponding network; and performing, by the wireless node, an access barring check to determine whether a certain access attempt is allowed using the set of access control parameters.
A method for producing a housing with shielding from electric and/or magnetic radiation, comprising: - supplying an electrically and/or magnetically conductive foil , - supplying a housing made of an electrically and/or magnetically non-conductive material, with an outer and an inner wall , - supplying a moulding tool , with a wall , the shape of which corresponds to the inner or outer wall of the housing , - supplying a further moulding tool which has an inverse shape to the wall of the moulding tool , - pressing the foil against the wall of the moulding tool by pressing the further moulding tool against the wall of the moulding tool , wherein the foil is arranged between the moulding tool and the further moulding tool , - shaping the foil such that a shape of the foil corresponds to a shape of the outer or inner wall of the housing , in that the foil is laid in the moulding tool and is reshaped by pressing the foil against the wall of the moulding tool , - arranging the foil on the inner or outer wall of the housing . - supplying an electrically and/or magnetically conductive foil , - supplying a housing made of an electrically and/or magnetically non-conductive material, with an outer and an inner wall , - supplying a moulding tool , with a wall , the shape of which corresponds to the inner or outer wall of the housing , - supplying a further moulding tool which has an inverse shape to the wall of the moulding tool , - pressing the foil against the wall of the moulding tool by pressing the further moulding tool against the wall of the moulding tool , wherein the foil is arranged between the moulding tool and the further moulding tool , - shaping the foil such that a shape of the foil corresponds to a shape of the outer or inner wall of the housing , in that the foil is laid in the moulding tool and is reshaped by pressing the foil against the wall of the moulding tool , - arranging the foil on the inner or outer wall of the housing .
A method for transmitting a data stream (DS) from a server to at least two client devices (151-153) comprising: • for at least one outgoing data stream (DS): ∘ transmitting (S210) said data stream (DS) to said at least two client devices (151-153); and ∘ buffering (S205) a predetermined portion (CSD) of said data stream (DS) in a shared buffer ; • wherein upon receiving (S220) per client requests for retransmission of data (RRQ) from at least one of said at least two client devices (151-153): ∘ retransmitting (S230) requested data from said shared buffer , said method being characterized in that : • when said method is concerned with video distribution using multicast, said step of retransmitting (S230) is performed as unicast or multicast transmission, • unicast- or multicast transmission is selected (S229) based on if there is a network installation with native layer 1 or layer 2, L1/L2, multicast, and • said method comprises removing (S240) buffered data (CSD) from said shared buffer based on if a time of interest for the buffered data (CSD) has passed. • for at least one outgoing data stream (DS): ∘ transmitting (S210) said data stream (DS) to said at least two client devices (151-153); and ∘ buffering (S205) a predetermined portion (CSD) of said data stream (DS) in a shared buffer ; ∘ transmitting (S210) said data stream (DS) to said at least two client devices (151-153); and ∘ buffering (S205) a predetermined portion (CSD) of said data stream (DS) in a shared buffer ; • wherein upon receiving (S220) per client requests for retransmission of data (RRQ) from at least one of said at least two client devices (151-153): ∘ retransmitting (S230) requested data from said shared buffer , ∘ retransmitting (S230) requested data from said shared buffer , • when said method is concerned with video distribution using multicast, said step of retransmitting (S230) is performed as unicast or multicast transmission, • unicast- or multicast transmission is selected (S229) based on if there is a network installation with native layer 1 or layer 2, L1/L2, multicast, and • said method comprises removing (S240) buffered data (CSD) from said shared buffer based on if a time of interest for the buffered data (CSD) has passed.
Implantable drug-eluting device comprising a microporous structure , the microporous structure comprising regularly arranged pores in at least two different uniform sizes, a first size and a second size, wherein the pores are configured for receiving a drug and are being connected by interconnections , the interconnections being configured to convey the drug to a surface of the microporous structure for elution to surrounding tissue via elution areas, wherein the interconnections originating from the pores of the first size having a first elution area and the interconnections originating from the pores of the second size having a second elution area , characterized in that said elution areas are differently sized, wherein said elution areas determine a rate of elution of any drug in the respective pores, and wherein a ratio between the first elution area and the second elution area is predefined and selectable.