mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile hearable device for communicating with a vehicle control system, the mobile hearable device comprising: a microphone ; a wireless transceiver configured as one of a near field magnetic induction, NFMI, transceiver and a near field electromagnetic induction, NFEMI, transceiver; a processor coupled to the transceiver and the microphone and configured to: receive a location identifier via the transceiver from a location identification transmitter located in a vehicle, the location identification transmitter being configured as one of a NFMI transmitter and a NFEMI transmitter; receive a speech signal from a user of the mobile hearable device ; determine whether the speech signal comprises an actuator control command; generate a control instruction comprising the actuator control command and the location identifier; wherein the mobile hearable device is configured to transmit the control instruction to the vehicle control system wirelessly coupled to the mobile hearable device, the vehicle control system being configured to control one or more actuators in the vehicle dependent on the actuator control command and the location identifier. a microphone ; a wireless transceiver configured as one of a near field magnetic induction, NFMI, transceiver and a near field electromagnetic induction, NFEMI, transceiver; a processor coupled to the transceiver and the microphone and configured to: receive a location identifier via the transceiver from a location identification transmitter located in a vehicle, the location identification transmitter being configured as one of a NFMI transmitter and a NFEMI transmitter; receive a speech signal from a user of the mobile hearable device ; determine whether the speech signal comprises an actuator control command; generate a control instruction comprising the actuator control command and the location identifier; wherein the mobile hearable device is configured to transmit the control instruction to the vehicle control system wirelessly coupled to the mobile hearable device, the vehicle control system being configured to control one or more actuators in the vehicle dependent on the actuator control command and the location identifier. receive a location identifier via the transceiver from a location identification transmitter located in a vehicle, the location identification transmitter being configured as one of a NFMI transmitter and a NFEMI transmitter; receive a speech signal from a user of the mobile hearable device ; determine whether the speech signal comprises an actuator control command; generate a control instruction comprising the actuator control command and the location identifier; wherein the mobile hearable device is configured to transmit the control instruction to the vehicle control system wirelessly coupled to the mobile hearable device, the vehicle control system being configured to control one or more actuators in the vehicle dependent on the actuator control command and the location identifier.
A blade element for a gas turbine engine, the blade element comprising: a first inner surface of the blade element, wherein the first inner surface is associated with a first outer blade surface of the blade element; a second inner surface of the blade element, wherein the second inner surface is associated with a second outer blade surface of the blade element and wherein the second inner surface is opposite from the first inner surface ; and a cross-tie (130;205) configured to connect the first inner surface to the second inner surface , wherein the cross-tie (130;205) is positioned along a trailing edge of the blade element and the cross-tie (130;205) is positioned and configured to reduce vibration mode effects of the blade element reducing the stress and/or strain associated with a vibration mode of the blade element; wherein the cross-tie (130;205) includes a first portion blended to the first inner surface, a second portion blended to the second inner surface, and a non-circular cross-section between the first and second portions, the non-circular cross-section being reduced in size relative to the first and second portions of the cross-tie (130;205), and also being formed to include a non-circular blend between first and second portions of the cross-tie blended to blade surfaces. a first inner surface of the blade element, wherein the first inner surface is associated with a first outer blade surface of the blade element; a second inner surface of the blade element, wherein the second inner surface is associated with a second outer blade surface of the blade element and wherein the second inner surface is opposite from the first inner surface ; and a cross-tie (130;205) configured to connect the first inner surface to the second inner surface , wherein the cross-tie (130;205) is positioned along a trailing edge of the blade element and the cross-tie (130;205) is positioned and configured to reduce vibration mode effects of the blade element reducing the stress and/or strain associated with a vibration mode of the blade element; wherein the cross-tie (130;205) includes a first portion blended to the first inner surface, a second portion blended to the second inner surface, and a non-circular cross-section between the first and second portions, the non-circular cross-section being reduced in size relative to the first and second portions of the cross-tie (130;205), and also being formed to include a non-circular blend between first and second portions of the cross-tie blended to blade surfaces.
A cable arrangement comprising: a single optical fiber ; multiple optical fibers ; a wave division multiplexer disposed between the single optical fiber and the multiple optical fibers ; a distal end of the single optical fiber is terminated by an optical connector to enable the distal end to be plugged into an empty port at a drop terminal , the wave division multiplexer configured to demultiplex optical signals carried by the single optical fiber from the drop terminal and to route the demultiplexed signals to the multiple optical fibers ; distal ends of the multiple optical fibers are terminated by optical connectors to enable the distal ends to be plugged into ports at a remote unit , the wave division multiplexer also configured to multiplex optical signals carried by the multiple optical fibers from the remote unit and to route the multiplexed signal to the single optical fiber ; a protective closure or seal ; the wave division multiplexer is sealed from the outside environment, the wave division multiplexer is overmolded or otherwise enclosed in the protective closure or seal , portions of the single optical fiber and the multiple optical fibers also are included within the sealed enclosure ; and the optical connector terminating the distal end of the single optical fiber is a hardened optical connector. a single optical fiber ; multiple optical fibers ; a wave division multiplexer disposed between the single optical fiber and the multiple optical fibers ; a distal end of the single optical fiber is terminated by an optical connector to enable the distal end to be plugged into an empty port at a drop terminal , the wave division multiplexer configured to demultiplex optical signals carried by the single optical fiber from the drop terminal and to route the demultiplexed signals to the multiple optical fibers ; distal ends of the multiple optical fibers are terminated by optical connectors to enable the distal ends to be plugged into ports at a remote unit , the wave division multiplexer also configured to multiplex optical signals carried by the multiple optical fibers from the remote unit and to route the multiplexed signal to the single optical fiber ; a protective closure or seal ; the wave division multiplexer is sealed from the outside environment, the wave division multiplexer is overmolded or otherwise enclosed in the protective closure or seal , portions of the single optical fiber and the multiple optical fibers also are included within the sealed enclosure ; and the optical connector terminating the distal end of the single optical fiber is a hardened optical connector.
An antireflection film comprising: a polyester film having an in-plane retardation value (Rin) of 3000 nm to 30,000 nm in which a ratio (Rin/Rth) of an in-plane retardation value (Rin) to an thickness-direction retardation value (Rth) is 0.2 to 1.2, wherein the in-plane retardation value (Rin) is a value calculated by measuring the biaxial refractive indexes (nx, ny) orthogonal to each other in the polyester film plane and the thickness (d) of the polyester film, and substituting the measured values into |nx-ny|*d, and wherein the thickness-direction retardation value (Rth) is a value calculated by measuring the biaxial refractive indexes (nx, ny) orthogonal to each other in the polyester film plane, the refractive index (nz) in the thickness direction, and the thickness (d) of the polyester film, and substituting the measured values into [(nx+ny)/2-nz]d; and a low refractive index layer which is disposed on the polyester film and which is a crosslinked polymer comprising a photopolymerizable compound, an inorganic particle, and a polysilsesquioxane in which at least one reactive functional group is substituted.
A method for registering a second device in a server by a first device , the method comprising the steps of: connecting the first device to the server ; searching for the second device disposed in a home network that the first device is disposed; sending an inquiry related to registration of a second device with the server, from the first device to the second device; receiving data indicating allowance of the registration at the first device from the second device; receiving an identification information of the second device from the second device ; and in response to the allowance of the registration of the second device with the server, transmitting, to the server, a request for (S2107) registration of the second device with the server , the request including the identification information of the second device . connecting the first device to the server ; searching for the second device disposed in a home network that the first device is disposed; sending an inquiry related to registration of a second device with the server, from the first device to the second device; receiving data indicating allowance of the registration at the first device from the second device; receiving an identification information of the second device from the second device ; and in response to the allowance of the registration of the second device with the server, transmitting, to the server, a request for (S2107) registration of the second device with the server , the request including the identification information of the second device .
An interconnect for a solid oxide fuel cell comprising: a conductive substrate; and a ceramic protective layer provided on one surface or both surfaces of the conductive substrate, wherein the ceramic protective layer comprises a spinel structure oxide represented by the following Chemical Formula 1: [Chemical Formula 1] Mn 1.5-0.5(x1+x2) Co 1.5-0.5(x1+x2) Cu x1 Y x2 O 4 in Chemical Formula 1, x1 and x2 represent molar ratios of Cu and Y, respectively, and satisfy ranges of 0<x1≤0.9 and 0<x2≤0.5. a conductive substrate; and a ceramic protective layer provided on one surface or both surfaces of the conductive substrate, wherein the ceramic protective layer comprises a spinel structure oxide represented by the following Chemical Formula 1: [Chemical Formula 1] Mn 1.5-0.5(x1+x2) Co 1.5-0.5(x1+x2) Cu x1 Y x2 O 4 in Chemical Formula 1, x1 and x2 represent molar ratios of Cu and Y, respectively, and satisfy ranges of 0<x1≤0.9 and 0<x2≤0.5.
A method for performing wireless discovery between two or more wireless stations, the method comprising: prior to a connection having been established between a first wireless station and a second wireless station, transmitting (S710) a data string from the first wireless station to the second wireless station; and establishing (S730, S795) a wireless connection between the first wireless station and the second wireless station if (S780) the second wireless station receiving (S770) the data string contains the necessary interoperability hardware and/or software to run a service or application described by the data string, wherein the data string includes necessary interoperability information for the service or application to run on the second wireless station, wherein the data string further includes unique identification data for the service or application, and wherein the data string is an output of a hash function based on the unique identification data for the service or application along with the necessary interoperability information. prior to a connection having been established between a first wireless station and a second wireless station, transmitting (S710) a data string from the first wireless station to the second wireless station; and establishing (S730, S795) a wireless connection between the first wireless station and the second wireless station if (S780) the second wireless station receiving (S770) the data string contains the necessary interoperability hardware and/or software to run a service or application described by the data string, wherein the data string includes necessary interoperability information for the service or application to run on the second wireless station, wherein the data string further includes unique identification data for the service or application, and wherein the data string is an output of a hash function based on the unique identification data for the service or application along with the necessary interoperability information.
A method being performed by one or more computing devices including at least one hardware processor, the method for securely storing content received from a content owner in a cloud of a cloud provider, the method comprising: receiving , from a cloud provider, a set of processor identifiers, each processor identifier of the set being associated with a processor having secure enclave capability and being available for storing content; identifying at least a subset of the set of processor identifiers, each processor identifier of the subset being associated with a processor selected by the content owner for storing content; providing , to a manufacturer of the processors corresponding to the set of processor identifiers or to a third party associated with the processor manufacturer, the processor identifiers of the selected subset; receiving , from the manufacturer of the processors or the third party, a processor-specific public key corresponding to each processor associated with the subset of processor identifiers; encrypting content desired for storing on each processor selected for storing content with the received processor-specific public key corresponding thereto; and providing , to the cloud provider, the encrypted content for storing along with the processor identifier associated with the processor corresponding to the processor-specific public key utilized to encrypt the encrypted content provided. receiving , from a cloud provider, a set of processor identifiers, each processor identifier of the set being associated with a processor having secure enclave capability and being available for storing content; identifying at least a subset of the set of processor identifiers, each processor identifier of the subset being associated with a processor selected by the content owner for storing content; providing , to a manufacturer of the processors corresponding to the set of processor identifiers or to a third party associated with the processor manufacturer, the processor identifiers of the selected subset; receiving , from the manufacturer of the processors or the third party, a processor-specific public key corresponding to each processor associated with the subset of processor identifiers; encrypting content desired for storing on each processor selected for storing content with the received processor-specific public key corresponding thereto; and providing , to the cloud provider, the encrypted content for storing along with the processor identifier associated with the processor corresponding to the processor-specific public key utilized to encrypt the encrypted content provided.
A medicament injection device comprising: a main body having a cartridge receiving part configured to hold a medicament cartridge ; a needle hub holding a needle ; a needle sleeve at least partially surrounding the needle hub and needle and axially movable relative to the main body ; a removable transverse blocking member separating the cartridge receiving part and the needle hub ; and a compressed spring arranged between the needle hub and a distal end of the needle sleeve so that, upon removal of the blocking member , the spring is released, thereby causing the needle hub to move axially in a proximal direction towards the cartridge receiving part , wherein the spring is further configured to cause the needle and needle hub to retract subsequent to injection of a medicament. a main body having a cartridge receiving part configured to hold a medicament cartridge ; a needle hub holding a needle ; a needle sleeve at least partially surrounding the needle hub and needle and axially movable relative to the main body ; a removable transverse blocking member separating the cartridge receiving part and the needle hub ; and a compressed spring arranged between the needle hub and a distal end of the needle sleeve so that, upon removal of the blocking member , the spring is released, thereby causing the needle hub to move axially in a proximal direction towards the cartridge receiving part , wherein the spring is further configured to cause the needle and needle hub to retract subsequent to injection of a medicament.
A wired-rope measuring device, comprising: two cameras that shoot one or more wired ropes from different directions; and an analyzing device that analyzes image data that is an image shot by the two cameras; wherein the analyzing device is arranged to apply the principle of triangulation by a stereo method to the image data to seek coordinates of the wired rope relative to the cameras, and to correct volumetric anamorphosis based on the coordinates of the wired rope when calculating a diameter of the wired rope. an analyzing device that analyzes image data that is an image shot by the two cameras; wherein the analyzing device is arranged to apply the principle of triangulation by a stereo method to the image data to seek coordinates of the wired rope relative to the cameras, and to correct volumetric anamorphosis based on the coordinates of the wired rope when calculating a diameter of the wired rope.
Agricultural apparatus , in particular a distribution machine, comprising - a plurality of sensor units (26a-26f, 28a-28e) which are arranged along the machine width of the agricultural implement and are each configured to acquire information, in particular vegetation information, within a detection region (30a-30f, 32a-32e); the sensor units (26a-26f, 28a-28e) comprising at least one overview sensor unit (26a-26f) and at least one precision sensor unit (28a-28e), the detection region (30a-30f) of the at least one overview sensor unit (26a-26f) being larger than the detection region (32a-32e) of the at least one precision sensor unit (28a-28e), characterized in that an evaluation device is configured to compare the sensor data from the at least one overview sensor unit (26a-26f) and the at least one precision sensor unit (28a-28e) for an overlap region (34a-34j) and to examine the detection region (30a-30f) of the at least one overview sensor unit (26a-26f) for harmful plants on the basis of the comparison result. - a plurality of sensor units (26a-26f, 28a-28e) which are arranged along the machine width of the agricultural implement and are each configured to acquire information, in particular vegetation information, within a detection region (30a-30f, 32a-32e);
A container system for installing in a motor vehicle, having: a frame ; a container , in particular a refuse container; a pivoting connection , which connects the container to the frame such that it can be pivoted about a pivot pin ; and a locking device , which is connected to the frame and is designed to retain the container in a first position; wherein the container can be pivoted via the pivoting connection , into the first position, in which the pivoting connection supports the container outside an equilibrium position of the container , a weight-induced force (F G ) of the container thus subjecting the container to a torque (M) about the pivot axis , characterized in that , in the first position, the container acts on the locking device by way of the torque (M) in order for the container to be retained in the first position. a frame ; a container , in particular a refuse container; a pivoting connection , which connects the container to the frame such that it can be pivoted about a pivot pin ; and a locking device , which is connected to the frame and is designed to retain the container in a first position; wherein the container can be pivoted via the pivoting connection , into the first position, in which the pivoting connection supports the container outside an equilibrium position of the container , a weight-induced force (F G ) of the container thus subjecting the container to a torque (M) about the pivot axis , characterized in that , in the first position, the container acts on the locking device by way of the torque (M) in order for the container to be retained in the first position.
A connection method carried out by a first device for a short-range wireless communication system, the method comprising: transmitting (S211) a discovery signal including a connection information request to a second device ; receiving (S221) a discovery response signal including information on a third device connected to the second device from the second device; transmitting (S241) a connection request signal to the second device based on the information on the third device; receiving (S251) a connection response signal determined based on the connection request signal from the second device; and establishing (S261) the connection to the third device based on the connection response signal, wherein a connection between the third device and the second device is released based on the connection request signal transmitted by the first device. transmitting (S211) a discovery signal including a connection information request to a second device ; receiving (S221) a discovery response signal including information on a third device connected to the second device from the second device; transmitting (S241) a connection request signal to the second device based on the information on the third device; receiving (S251) a connection response signal determined based on the connection request signal from the second device; and establishing (S261) the connection to the third device based on the connection response signal, wherein a connection between the third device and the second device is released based on the connection request signal transmitted by the first device.