mhurhangee/patent-ind-claim-en huggingface dataset:
A network handover method performed by an evolved Node B, eNodeB , located on a Long Term Evolution, LTE, network, the method comprising: receiving a notification message sent by a mobility management entity, MME , wherein the notification message is used to instruct the eNodeB to move a user equipment, UE , from the LTE network to a circuit switched, CS, domain of a 2G or 3G network for circuit switched fallback, CSFB; determining , according to a capability of the UE, that the UE supports the handover from the LTE network to the CS domain of the 2G or 3G network; determining that an IMS voice session of the UE does not exist, and sending a handover requirement message to the MME, wherein said handover requirement messages is generated, by the eNodeB, according to the notification message received from the MME; receiving a handover requirement response message sent by the MME, wherein the handover requirement response message comprises information about a CS domain radio resource, and the information about the CS domain radio resource is used to hand over the UE from the LTE network to the CS domain of the 2G or 3G network; and sending a handover command to the UE, wherein the handover command is used to instruct that the UE be handed over from the LTE network to the CS domain of the 2G or 3G network, and the handover command comprises the information about the CS domain radio resource, wherein the determining, by the eNodeB, that an IMS voice session of the UE does not exist comprises: determining that a bearer whose QoS class identifier equals to 1 does not exist in the UE. receiving a notification message sent by a mobility management entity, MME , wherein the notification message is used to instruct the eNodeB to move a user equipment, UE , from the LTE network to a circuit switched, CS, domain of a 2G or 3G network for circuit switched fallback, CSFB; determining , according to a capability of the UE, that the UE supports the handover from the LTE network to the CS domain of the 2G or 3G network; determining that an IMS voice session of the UE does not exist, and sending a handover requirement message to the MME, wherein said handover requirement messages is generated, by the eNodeB, according to the notification message received from the MME; receiving a handover requirement response message sent by the MME, wherein the handover requirement response message comprises information about a CS domain radio resource, and the information about the CS domain radio resource is used to hand over the UE from the LTE network to the CS domain of the 2G or 3G network; and sending a handover command to the UE, wherein the handover command is used to instruct that the UE be handed over from the LTE network to the CS domain of the 2G or 3G network, and the handover command comprises the information about the CS domain radio resource, wherein the determining, by the eNodeB, that an IMS voice session of the UE does not exist comprises: determining that a bearer whose QoS class identifier equals to 1 does not exist in the UE.
Spectrometer for generating a two dimensional spectrum (S), the spectrometer comprising - a main grating arranged for spectrally dispersing radiation entering the spectrometer along a main dispersion direction (A1); - a cross dispersion element arranged for separating diffraction orders (Ox) of the main grating by means of spectrally dispersing the radiation in a cross dispersion direction (A2) forming an angle with the main dispersion direction (A1) of the main grating adapted to generate the two dimensional spectrum (S) with a plurality of separated orders (Ox); - an imaging mirror arranged for reflecting and focussing dispersed radiation (R3) from the main grating towards an image plane (IP) for imaging the two dimensional spectrum (S) onto the image plane (IP); and - a correction lens arranged for correcting optical aberrations in the imaging of the two dimensional spectrum (S) in the image plane (IP); wherein the imaging mirror and the correction lens have a coinciding axis of cylindrical symmetry (AS), and the main grating is arranged partially in between the correction lens and the imaging mirror , so that at least some paths between parts of the imaging mirror and correction lens are blocked by the main grating therein between. - a main grating arranged for spectrally dispersing radiation entering the spectrometer along a main dispersion direction (A1); - a cross dispersion element arranged for separating diffraction orders (Ox) of the main grating by means of spectrally dispersing the radiation in a cross dispersion direction (A2) forming an angle with the main dispersion direction (A1) of the main grating adapted to generate the two dimensional spectrum (S) with a plurality of separated orders (Ox); - an imaging mirror arranged for reflecting and focussing dispersed radiation (R3) from the main grating towards an image plane (IP) for imaging the two dimensional spectrum (S) onto the image plane (IP); and - a correction lens arranged for correcting optical aberrations in the imaging of the two dimensional spectrum (S) in the image plane (IP); wherein the imaging mirror and the correction lens have a coinciding axis of cylindrical symmetry (AS), and the main grating is arranged partially in between the correction lens and the imaging mirror , so that at least some paths between parts of the imaging mirror and correction lens are blocked by the main grating therein between.
A method comprising: executing, by one or more processors of a vehicle, an operating system to control a plurality of systems of the vehicle ; obtaining, by the one or more processors, an extensible mapping between a local control message specified in accordance with a control bus protocol and a standard control message supported by the operating system , wherein the extensible mapping defines how each byte of the standard control message is to be rearranged within the standard control message and/or how a value of each byte is to be converted to obtain the local control message conforming with the control bus protocol; generating, by the operating system executed by the one or more processors, the standard control message, the standard control message including a first representation of a command set to initiate an operational state change of at least one of the systems ; translating, by the one or more processors and based on the extensible mapping, the standard control message to obtain the local control message, the local control message including a second representation of the command set ; and transmitting, by the one or more processors and via a control bus coupled to the one or more processors and the one or more systems, the local control message to initiate the operational state change of the one or more systems . executing, by one or more processors of a vehicle, an operating system to control a plurality of systems of the vehicle ; obtaining, by the one or more processors, an extensible mapping between a local control message specified in accordance with a control bus protocol and a standard control message supported by the operating system , wherein the extensible mapping defines how each byte of the standard control message is to be rearranged within the standard control message and/or how a value of each byte is to be converted to obtain the local control message conforming with the control bus protocol; generating, by the operating system executed by the one or more processors, the standard control message, the standard control message including a first representation of a command set to initiate an operational state change of at least one of the systems ; translating, by the one or more processors and based on the extensible mapping, the standard control message to obtain the local control message, the local control message including a second representation of the command set ; and transmitting, by the one or more processors and via a control bus coupled to the one or more processors and the one or more systems, the local control message to initiate the operational state change of the one or more systems .
Apparatus for producing a levelling bar from a hardening material, the apparatus comprising - a stripping edge , - a slide on which the stripping edge is arranged, - a rail on which the slide is arranged and along which it is linearly movable, the slide being permanently attached to the rail , and the rail comprising means for adjusting its position that are permanently connected to it, characterised in that the vertical position of the stripping edge can be adjusted from a working position to a rest position at a greater height, the stripping edge being switchable back and forth between these positions so that a levelling stroke and a return stroke can be provided when travelling over the surface of the levelling bar multiple times, with contact between the levelling edge and the levelling bar only occurring during the levelling stroke. - a stripping edge , - a slide on which the stripping edge is arranged, - a rail on which the slide is arranged and along which it is linearly movable, the slide being permanently attached to the rail , and the rail comprising means for adjusting its position that are permanently connected to it, characterised in that the vertical position of the stripping edge can be adjusted from a working position to a rest position at a greater height, the stripping edge being switchable back and forth between these positions so that a levelling stroke and a return stroke can be provided when travelling over the surface of the levelling bar multiple times, with contact between the levelling edge and the levelling bar only occurring during the levelling stroke.
Measuring device for measuring a physical variable, comprising: an A/D converter , which is configured to convert an input variable present at a measurement input into a measurement signal and to provide the same as an output variable; a processing unit , which is configured to process the output variable of the A/D converter ; and a signal generator , which is configured to generate a test signal on the basis of a specification, which test signal corresponds to an output variable of the A/D converter associated to an input variable corresponding to the specification; wherein the processing unit can be connected via a switching element either to the A/D converter or to the signal generator , wherein the measuring device comprises an output interface and the processing unit is configured to output the processed output variable via the output interface ; and wherein the specification can be read completely or partially from a memory, which is arranged in the measuring device , or wherein the specification originates completely from an external source, characterized in that the signal generator is configured to output the test signal with an indication that the output is based on a test signal. an A/D converter , which is configured to convert an input variable present at a measurement input into a measurement signal and to provide the same as an output variable; a processing unit , which is configured to process the output variable of the A/D converter ; and a signal generator , which is configured to generate a test signal on the basis of a specification, which test signal corresponds to an output variable of the A/D converter associated to an input variable corresponding to the specification; wherein the processing unit can be connected via a switching element either to the A/D converter or to the signal generator , wherein the measuring device comprises an output interface and the processing unit is configured to output the processed output variable via the output interface ; and wherein the specification can be read completely or partially from a memory, which is arranged in the measuring device , or wherein the specification originates completely from an external source, characterized in that the signal generator is configured to output the test signal with an indication that the output is based on a test signal.
A cold-mix bituminous material, obtained by mixing a solid fraction, in particular a mineral solid fraction, with a cationic bitumen emulsion, said cationic bitumen emulsion comprising water, a hydrocarbon binder, at least one emulsifier and an acid, wherein the hydrocarbon binder comprises bitumen and an additive, characterised in that the hydrocarbon binder comprises 0.02% to 10% by weight of said additive relative to the weight of the binder, and in that said additive is a thermoplastic polymer compatible with bitumen, having at least one carboxylic acid function, the polymer being chosen from a polyester, a polyamide, a poly(ester-amide), a polyether, a polyacrylate, a polydiene, or a copolymer of diene and vinyl monomers, and the combinations thereof.
A welding-type power supply , comprising: power conversion circuitry configured to convert an input power from a power source to a welding-type output power, wherein the voltage of the input power from the power source is configured to be in a low range or a high range; the power conversion circuitry comprising a pre-regulator circuit configured to produce a pre-regulator output voltage; and characterised in that the power conversion circuitry comprises: control circuitry configured to: determine whether the welding-type power supply is in an idle mode; and in response to determining the welding-type power supply is in the idle mode, control the pre-regulator circuit to provide the pre-regulator output voltage at an idle level voltage, wherein the idle level voltage is at a first magnitude when the voltage of the input power is in the low range, and the idle level voltage is at a second magnitude when the voltage of the input power is in the high range. power conversion circuitry configured to convert an input power from a power source to a welding-type output power, wherein the voltage of the input power from the power source is configured to be in a low range or a high range; the power conversion circuitry comprising a pre-regulator circuit configured to produce a pre-regulator output voltage; and characterised in that the power conversion circuitry comprises: control circuitry configured to: determine whether the welding-type power supply is in an idle mode; and in response to determining the welding-type power supply is in the idle mode, control the pre-regulator circuit to provide the pre-regulator output voltage at an idle level voltage, wherein the idle level voltage is at a first magnitude when the voltage of the input power is in the low range, and the idle level voltage is at a second magnitude when the voltage of the input power is in the high range. determine whether the welding-type power supply is in an idle mode; and in response to determining the welding-type power supply is in the idle mode, control the pre-regulator circuit to provide the pre-regulator output voltage at an idle level voltage, wherein the idle level voltage is at a first magnitude when the voltage of the input power is in the low range, and the idle level voltage is at a second magnitude when the voltage of the input power is in the high range.
An agricultural working machine in the form of a tractor , comprising - a vehicle frame , - a propulsion engine , as well as - a transmission device , wherein the propulsion engine comprises an engine housing and a take-off shaft , wherein the transmission device comprises a pump transfer gear and a continuously variable transmission , wherein on the take-off side, the pump transfer gear has at least one output shaft for operational connection to the continuously variable transmission and at least one connection for a hydraulic drive means , characterized in that the pump transfer gear is flange-mounted on the propulsion engine in a manner such that the propulsion engine is at least partially supported on the vehicle frame by means of the pump transfer gear . - a vehicle frame , - a propulsion engine , as well as - a transmission device , wherein the propulsion engine comprises an engine housing and a take-off shaft , wherein the transmission device comprises a pump transfer gear and a continuously variable transmission , wherein on the take-off side, the pump transfer gear has at least one output shaft for operational connection to the continuously variable transmission and at least one connection for a hydraulic drive means , characterized in that the pump transfer gear is flange-mounted on the propulsion engine in a manner such that the propulsion engine is at least partially supported on the vehicle frame by means of the pump transfer gear .
An outdoor unit setting system includes an outdoor unit comprising a first communication unit , and an information terminal comprising a second communication unit , and configured to make a setting of the outdoor unit by contactless communication between the first communication unit and the second communication unit , wherein the outdoor unit comprises a first controller configured to notify time information related to time elapsed from application of power to the outdoor unit , to the information terminal by the contactless communication, and the information terminal comprises a second controller configured to permit the setting of the outdoor unit made by the information terminal during a period until the elapsed time reaches certain time based on the time information notified from the outdoor unit .
A saddle-type vehicle system comprising: a saddle-type vehicle configured to be ridden by an occupant ; a helmet configured to be worn by the occupant ; an imaging element ; and an occupant authentication device configured to perform authentication of the occupant by the imaging element and to release lock on the saddle-type vehicle in the case where the occupant has been authenticated, characterized in that the imaging element is provided on a crown inner side of the helmet , at a front lower part of the helmet or at a rear lower part of the helmet and is configured to capture an image of a face of the occupant when the occupant puts on the helmet on a head of the occupant ; and the occupant authentication device is configured to perform the authentication of the occupant based on the image of the face. a saddle-type vehicle configured to be ridden by an occupant ; a helmet configured to be worn by the occupant ; an imaging element ; and an occupant authentication device configured to perform authentication of the occupant by the imaging element and to release lock on the saddle-type vehicle in the case where the occupant has been authenticated, the imaging element is provided on a crown inner side of the helmet , at a front lower part of the helmet or at a rear lower part of the helmet and is configured to capture an image of a face of the occupant when the occupant puts on the helmet on a head of the occupant ; and the occupant authentication device is configured to perform the authentication of the occupant based on the image of the face.
A system for the supply of fuel to aircraft that consists of: a mobile trolley (1.2) having multiple wheels (1.3) and a shaft (1.1), and a device comprising: an elevating arm situated above the mobile trolley (1.2) and where the elevating arm is articulated with respect to the shaft (1.1) to move between a first position that is substantially horizontal and parallel to the surface of the floor and a second elevated position; an adaptor assembly integrally joined to the upper surface of the elevating arm and from which a drive handle emerges frontally which is configured to mobilise the mobile trolley (1.2) by means of the multiple wheels (1.3); an actuation mechanism integrally joined to the adaptor assembly on the lower and internal surface of the elevating arm ; and an articulated clamp configured to be actuated by means of the actuation mechanism such that said articulated clamp is adjusted on a handle of a pit coupler. a mobile trolley (1.2) having multiple wheels (1.3) and a shaft (1.1), and a device comprising: an elevating arm situated above the mobile trolley (1.2) and where the elevating arm is articulated with respect to the shaft (1.1) to move between a first position that is substantially horizontal and parallel to the surface of the floor and a second elevated position; an adaptor assembly integrally joined to the upper surface of the elevating arm and from which a drive handle emerges frontally which is configured to mobilise the mobile trolley (1.2) by means of the multiple wheels (1.3); an actuation mechanism integrally joined to the adaptor assembly on the lower and internal surface of the elevating arm ; and an articulated clamp configured to be actuated by means of the actuation mechanism such that said articulated clamp is adjusted on a handle of a pit coupler. an elevating arm situated above the mobile trolley (1.2) and where the elevating arm is articulated with respect to the shaft (1.1) to move between a first position that is substantially horizontal and parallel to the surface of the floor and a second elevated position; an adaptor assembly integrally joined to the upper surface of the elevating arm and from which a drive handle emerges frontally which is configured to mobilise the mobile trolley (1.2) by means of the multiple wheels (1.3); an actuation mechanism integrally joined to the adaptor assembly on the lower and internal surface of the elevating arm ; and an articulated clamp configured to be actuated by means of the actuation mechanism such that said articulated clamp is adjusted on a handle of a pit coupler.
A circuit for driving a light-emitting diode (LED) load and a direct current to direct current (DC-DC) converter , said circuit comprising: a first sampling sub-circuit for generating a current signal representing a load current of the LED load ; characterized in that the circuit further comprises: a driving circuit configured to: receive a brightness adjustment signal and a frequency adjustment signal ; generate a first control signal, based on the current signal and the brightness adjustment signal , for controlling an output current of the DC-DC converter ; and generate a second control signal, based on the frequency adjustment signal , for controlling a switching frequency of the LED load . receive a brightness adjustment signal and a frequency adjustment signal ; generate a first control signal, based on the current signal and the brightness adjustment signal , for controlling an output current of the DC-DC converter ; and generate a second control signal, based on the frequency adjustment signal , for controlling a switching frequency of the LED load .