mhurhangee/patent-ind-claim-en huggingface dataset:
A tesseral shim coil for shimming the magnetic field of a magnetic resonance system by generating the spherical harmonics of the sine and cosine type of the magnetic field, the tesseral shim coil being cylindrical and comprising at least four saddle coils , wherein the sum of the azimuthal span of the at least four saddle coils is less than 360 degrees, wherein the tesseral shim coil comprises a first and a second set of saddle coils, wherein the first and second sets of saddle coils are configured to shim the same degree and order of the spherical harmonics of the magnetic field, wherein the first set of saddle coils is configured to shim the spherical harmonic of the sine type of the magnetic field, wherein the second set of saddle coils is configured to shim the spherical harmonic of the cosine type of the magnetic field and the first and second sets of shim coils are combined into a single cylindrical coil layer .
A method for mapping a source location by an electronic device , comprising: obtaining sensor data that comprises a voice signal from a source location; determining an orientation of the electronic device based on the sensor data; mapping the source location to electronic device coordinates based on the sensor data ; mapping the source location from the electronic device coordinates to physical coordinates based on the orientation of the electronic device, the physical coordinates being coordinates that correspond to a physical space that is independent of the orientation of the electronic device; and performing an operation based on a mapping. obtaining sensor data that comprises a voice signal from a source location; determining an orientation of the electronic device based on the sensor data; mapping the source location to electronic device coordinates based on the sensor data ; mapping the source location from the electronic device coordinates to physical coordinates based on the orientation of the electronic device, the physical coordinates being coordinates that correspond to a physical space that is independent of the orientation of the electronic device; and performing an operation based on a mapping.
A form for creation of a structure, the form for supporting uncured concrete prior to curing comprising: a substantially vertical component , said substantially vertical component having a substantially vertical inwardly facing surface and a substantially vertical outwardly facing surface; a substantially horizontal component having a substantially horizontal inwardly facing surface and a substantially horizontal outwardly facing surface , said substantially vertical component located substantially perpendicular to said substantially horizontal component and extending upwardly from said horizontal component , the substantially vertical component and the substantially horizontal component forming an L shape; at least one insert in or through at least one of the group consisting of the substantially vertical inwardly facing surface , the substantially horizontal inwardly facing surface ; and combinations thereof; a rabbet extending longitudinally along the substantially horizontal component , the rabbet recessed in said substantially horizontal outwardly facing surface at the distal end thereof, the rabbet defined by top and side surfaces , the side surface being substantially vertical, characterized in that the top surface is located at an angle of greater than ninety degrees relative to the side surface , the top surface tapered upwardly as it extends away from the side surface. a substantially vertical component , said substantially vertical component having a substantially vertical inwardly facing surface and a substantially vertical outwardly facing surface; a substantially horizontal component having a substantially horizontal inwardly facing surface and a substantially horizontal outwardly facing surface , said substantially vertical component located substantially perpendicular to said substantially horizontal component and extending upwardly from said horizontal component , the substantially vertical component and the substantially horizontal component forming an L shape; at least one insert in or through at least one of the group consisting of the substantially vertical inwardly facing surface , the substantially horizontal inwardly facing surface ; and combinations thereof; a rabbet extending longitudinally along the substantially horizontal component , the rabbet recessed in said substantially horizontal outwardly facing surface at the distal end thereof, the rabbet defined by top and side surfaces , the side surface being substantially vertical, characterized in that the top surface is located at an angle of greater than ninety degrees relative to the side surface , the top surface tapered upwardly as it extends away from the side surface.
A method of operating a ferroelectric memory cell , comprising: receiving a first charge associated with a dielectric of the ferroelectric memory cell at a sense amplifier; isolating the sense amplifier from a digit line coupled with the ferroelectric memory cell after receiving the first charge; activating the sense amplifier at a first time after isolating the sense amplifier from the digit line coupled with the ferroelectric memory cell; deisolating the sense amplifier from the digit line coupled with the ferroelectric memory cell after activating the sense amplifier at a first time; receiving a second charge associated with a polarization of the ferroelectric memory cell at the sense amplifier after deisolating the sense amplifier from the digit line ; and activating the sense amplifier at a second time after receiving the second charge. receiving a first charge associated with a dielectric of the ferroelectric memory cell at a sense amplifier; isolating the sense amplifier from a digit line coupled with the ferroelectric memory cell after receiving the first charge; activating the sense amplifier at a first time after isolating the sense amplifier from the digit line coupled with the ferroelectric memory cell; deisolating the sense amplifier from the digit line coupled with the ferroelectric memory cell after activating the sense amplifier at a first time; receiving a second charge associated with a polarization of the ferroelectric memory cell at the sense amplifier after deisolating the sense amplifier from the digit line ; and activating the sense amplifier at a second time after receiving the second charge.
A wireless wide area network, WWAN, terminal comprising: a first wireless communication unit configured to send a connection request (S112) to a wireless local area network, WLAN, terminal , establish a direct wireless connection (S114) between the WWAN terminal in a first network and the WLAN terminal based on the connection request; and a control unit configured to assist connection between the WLAN terminal and a WLAN base station in a second network by sending user information (S212) of the WWAN communication apparatus , SSID information (S116) for the second network and authentication information (S232) to the WLAN terminal . a first wireless communication unit configured to send a connection request (S112) to a wireless local area network, WLAN, terminal , establish a direct wireless connection (S114) between the WWAN terminal in a first network and the WLAN terminal based on the connection request; and a control unit configured to assist connection between the WLAN terminal and a WLAN base station in a second network by sending user information (S212) of the WWAN communication apparatus , SSID information (S116) for the second network and authentication information (S232) to the WLAN terminal .
A system comprising: a head mounted device mountable to a head of a pilot; at least one vital signs sensor couplable to a body part of said pilot and configured to repeatedly obtain in real time, vital signs data indicative of at least one of blood flow, saturation of peripheral oxygen, heartbeat rate, perfusion level, abnormal flow characteristics and Electroencephalogram "EEG" of said pilot; a plurality of position and orientation sensors embedded within said head mounted device and configured to repeatedly obtain in real time head-related data associated with position and orientation of the head of said pilot; a database configured to store pilot-specific data indicative of historical vital signs and head behavior of the pilot vis à vis platform data recorded over previous flights; a computer processor configured to: simultaneously receive the pilot-specific data, vital signs data and the head related data as an input to a decision function; and generate, as an output of the decision function, an indication of preconditions of pilot incompetence before the incompetence has occurred, based on said pilot-specific data and predefined criteria. a head mounted device mountable to a head of a pilot; at least one vital signs sensor couplable to a body part of said pilot and configured to repeatedly obtain in real time, vital signs data indicative of at least one of blood flow, saturation of peripheral oxygen, heartbeat rate, perfusion level, abnormal flow characteristics and Electroencephalogram "EEG" of said pilot; a plurality of position and orientation sensors embedded within said head mounted device and configured to repeatedly obtain in real time head-related data associated with position and orientation of the head of said pilot; a database configured to store pilot-specific data indicative of historical vital signs and head behavior of the pilot vis à vis platform data recorded over previous flights; a computer processor configured to: simultaneously receive the pilot-specific data, vital signs data and the head related data as an input to a decision function; and generate, as an output of the decision function, an indication of preconditions of pilot incompetence before the incompetence has occurred, based on said pilot-specific data and predefined criteria. simultaneously receive the pilot-specific data, vital signs data and the head related data as an input to a decision function; and generate, as an output of the decision function, an indication of preconditions of pilot incompetence before the incompetence has occurred, based on said pilot-specific data and predefined criteria.
Method for transferring data in a topic-based publish-subscribe system , comprising a key distribution server and a number of local client systems that can be coupled with the key distribution server , comprising: a) providing (S1, T1) a group key by the key distribution server for a group (G) selected from the local client systems , b) locally deriving (S2, T2) a first-order sub-group key for a first-order sub-group (UG1) of the group (G) by means of key derivation parameters, at least comprising the provided group key and a specific topic of the publish-subscribe system , by the respective client system of the first-order sub-group (UG1), and c) transferring (S3, T3) at least one message cryptographically protected by means of the derived first-order sub-group key between the client systems of the first-order sub-group (UG1), wherein the method also comprises: locally deriving (S4) a second-order sub-group key for a second-order sub-group (UG2) of the first-order sub-group (UG1) by means of the derived first-order sub-group key by the respective client system of the second-order sub-group (UG2), and transferring (S5) at least one message cryptographically protected by means of the derived second-order sub-group key between the client systems of the second-order sub-group (UG2) . a) providing (S1, T1) a group key by the key distribution server for a group (G) selected from the local client systems , b) locally deriving (S2, T2) a first-order sub-group key for a first-order sub-group (UG1) of the group (G) by means of key derivation parameters, at least comprising the provided group key and a specific topic of the publish-subscribe system , by the respective client system of the first-order sub-group (UG1), and c) transferring (S3, T3) at least one message cryptographically protected by means of the derived first-order sub-group key between the client systems of the first-order sub-group (UG1), locally deriving (S4) a second-order sub-group key for a second-order sub-group (UG2) of the first-order sub-group (UG1) by means of the derived first-order sub-group key by the respective client system of the second-order sub-group (UG2), and transferring (S5) at least one message cryptographically protected by means of the derived second-order sub-group key between the client systems of the second-order sub-group (UG2) .
A THz imaging device for real-time measurement of properties of a multiphase flow flowing in a pipeline , the THz imaging device comprising a THz imaging subsystem having - a THz source configured to be arranged at the pipeline and to irradiate the multiphase flow with THz radiation at an operating frequency selected from a THz frequency range above 0.1 THz and below 10 THz, - a THz camera comprising a two-dimensional array of pixels, the THz camera being configured to be placed parallel to the multiphase flow direction for sandwiching the pipeline together with the THz source and for receiving the THz radiation transmitted through the multiphase flow to capture a two-dimensional THz image of the multiphase flow, and - an image processing module configured to process the captured two-dimensional THz image for measuring the multiphase flow, wherein the measured multiphase flow comprises at least one of oil, water, gas and solid contaminants . - a THz source configured to be arranged at the pipeline and to irradiate the multiphase flow with THz radiation at an operating frequency selected from a THz frequency range above 0.1 THz and below 10 THz, - a THz camera comprising a two-dimensional array of pixels, the THz camera being configured to be placed parallel to the multiphase flow direction for sandwiching the pipeline together with the THz source and for receiving the THz radiation transmitted through the multiphase flow to capture a two-dimensional THz image of the multiphase flow, and - an image processing module configured to process the captured two-dimensional THz image for measuring the multiphase flow,
A calculation device configured to prepare an operation schedule of a crane for a predetermined period, the crane transferring waste in a waste pit , said calculation device comprising: a first-generation gene generating section configured to generate a gene group including genes each of which indicates an operation pattern of the crane in the predetermined period, the operation pattern defining movement, opening, and closing of the crane ; and an optimization calculation section configured to select, based on an evolutionary algorithm, a gene indicating an operation pattern with which an initial state of degree of mixing of the waste is caused to become or become closer to a predetermined homogeneous state, the evolutionary algorithm being an algorithm in which evaluation of fitness of each of the genes included in the gene group and update of the gene group based on the evaluation are repeatedly carried out. a first-generation gene generating section configured to generate a gene group including genes each of which indicates an operation pattern of the crane in the predetermined period, the operation pattern defining movement, opening, and closing of the crane ; and an optimization calculation section configured to select, based on an evolutionary algorithm, a gene indicating an operation pattern with which an initial state of degree of mixing of the waste is caused to become or become closer to a predetermined homogeneous state, the evolutionary algorithm being an algorithm in which evaluation of fitness of each of the genes included in the gene group and update of the gene group based on the evaluation are repeatedly carried out.
A communications method performed by a wireless device, the method comprising: receiving a radio resource configuration, RRC, signaling that indicates an uplink / downlink , UL / DL, configuration, wherein the UL / DL configuration indicates a quantity of uplink microframes in a group of microframes, wherein each subframe comprises a plurality of microframes, and wherein the the group of microframes comprises a consecutive sequence of downlink microframes and a consecutive sequence of uplink microframes, and wherein each microframe comprises one or more orthogonal frequency division multiplex, OFDM, symbols; receiving a downlink control information, DCI, that indicates an uplink microframe of the consecutive sequence of uplink microframes; receiving a packet in a downlink microframe of the consecutive sequence of downlink microframes; transmitting an acknowledgement, ACK, or a negative acknowledgement, NACK, associated with the packet in the uplink microframe indicated by the DCI, wherein the ACK or NACK is transmitted in a same subframe as a subframe utilized for receiving the packet. receiving a radio resource configuration, RRC, signaling that indicates an uplink / downlink , UL / DL, configuration, wherein the UL / DL configuration indicates a quantity of uplink microframes in a group of microframes, wherein each subframe comprises a plurality of microframes, and wherein the the group of microframes comprises a consecutive sequence of downlink microframes and a consecutive sequence of uplink microframes, and wherein each microframe comprises one or more orthogonal frequency division multiplex, OFDM, symbols; receiving a downlink control information, DCI, that indicates an uplink microframe of the consecutive sequence of uplink microframes; receiving a packet in a downlink microframe of the consecutive sequence of downlink microframes; transmitting an acknowledgement, ACK, or a negative acknowledgement, NACK, associated with the packet in the uplink microframe indicated by the DCI, wherein the ACK or NACK is transmitted in a same subframe as a subframe utilized for receiving the packet.
A computer-implemented method for enabling a software application to be executed on a hardware device in dependence of a hardware circuit in the hardware device, the method comprising: inputting challenge data originating from the software application to the hardware circuit of the hardware device, wherein the hardware circuit is configured to perform a deterministic function; generating response data using the function with the challenge data as input to the function; and using the response data to enable the software application to be executed; characterised in that the software application is an encrypted software application, wherein the challenge data comprises at least a part of a software image of the software application, and wherein the using of the response data comprises using the response data as a decryption key to decrypt at least a part of the encrypted software application . inputting challenge data originating from the software application to the hardware circuit of the hardware device, wherein the hardware circuit is configured to perform a deterministic function; generating response data using the function with the challenge data as input to the function; and using the response data to enable the software application to be executed; characterised in that the software application is an encrypted software application, wherein the challenge data comprises at least a part of a software image of the software application, and wherein the using of the response data comprises using the response data as a decryption key to decrypt at least a part of the encrypted software application .
A voltage sensor , comprising: a conductor having a first end and a second end , the first end including a first connection interface and the second end having no connection, and a sensor section including at least one sensor disposed over the conductor, the sensor sensing at least a voltage or a sample of the voltage of the conductor; wherein the sensor section includes a capacitive voltage sensor having an inner shield layer in contact with the conductor , an insulation layer disposed over the inner shield layer, and an electrically isolated outer shield layer disposed over the insulation layer, the outer shield layer comprising an electrically isolated section of conductive or semiconductive material, characterized in that the sensor section includes a printed circuit board as a capacitive element, which is in electrical contact with the electrically isolated section of conductive or semiconductive material, wherein the printed circuit board is located directly over the electrically isolated section to arrange for the electrical contact with the isolated section , which in turn is arranged on insulation layer . a conductor having a first end and a second end , the first end including a first connection interface and the second end having no connection, and a sensor section including at least one sensor disposed over the conductor, the sensor sensing at least a voltage or a sample of the voltage of the conductor; wherein the sensor section includes a capacitive voltage sensor having an inner shield layer in contact with the conductor , an insulation layer disposed over the inner shield layer, and an electrically isolated outer shield layer disposed over the insulation layer, the outer shield layer comprising an electrically isolated section of conductive or semiconductive material, characterized in that the sensor section includes a printed circuit board as a capacitive element, which is in electrical contact with the electrically isolated section of conductive or semiconductive material, wherein the printed circuit board is located directly over the electrically isolated section to arrange for the electrical contact with the isolated section , which in turn is arranged on insulation layer .
A terminal (MTC UE) configured to employ coverage enhancement, the terminal (MTC UE) comprising: a transmitting section configured to transmit a random access preamble; a receiving section configured to receive a random access response; and a control section configured to control to transmit the random access preamble by using a random access preamble resource that is different from a random access preamble resource used by a terminal (LEGACY UE) not employing coverage enhancement wherein the receiving section is configured to receive the random access response at a timing predetermined for the coverage enhancement and the timing predetermined is within a window based on the coverage enhancement. a transmitting section configured to transmit a random access preamble; a receiving section configured to receive a random access response; and a control section configured to control to transmit the random access preamble by using a random access preamble resource that is different from a random access preamble resource used by a terminal (LEGACY UE) not employing coverage enhancement wherein the receiving section is configured to receive the random access response at a timing predetermined for the coverage enhancement and the timing predetermined is within a window based on the coverage enhancement.