mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: a first rotor assembly including a permanent magnet that emits a first magnetic field and is suitable to be connected to a first compressor of a turbine engine ; a second rotor assembly including an armature winding and a resonant emitter , wherein the second rotor assembly is suitable to be connected to a second compressor of the turbine engine at an interface between the first compressor and second compressor such that the armature winding is positioned within the first magnetic field, and the resonant emitted is configured to receive an electrical power input from the armature winding to generate a second magnetic field of at least a predefined frequency when the first rotor assembly rotates relative to the second rotor assembly; and a resonant receiver , configured to be disposed on an enclosure of the turbine engine, positioned in relation to the resonant emitter to receive the second magnetic field and convert the second magnetic field into an electrical power output. a first rotor assembly including a permanent magnet that emits a first magnetic field and is suitable to be connected to a first compressor of a turbine engine ; a second rotor assembly including an armature winding and a resonant emitter , wherein the second rotor assembly is suitable to be connected to a second compressor of the turbine engine at an interface between the first compressor and second compressor such that the armature winding is positioned within the first magnetic field, and the resonant emitted is configured to receive an electrical power input from the armature winding to generate a second magnetic field of at least a predefined frequency when the first rotor assembly rotates relative to the second rotor assembly; and a resonant receiver , configured to be disposed on an enclosure of the turbine engine, positioned in relation to the resonant emitter to receive the second magnetic field and convert the second magnetic field into an electrical power output.
A method in a wireless device , comprising: identifying a synchronization channel part of a radio frequency (RF) carrier in an operating band; obtaining system information for use in determining a position of the RF carrier in the operating band relative to the identified synchronization channel part of the RF carrier; and determining , based on the obtained system information, the position of the RF carrier in the operating band relative to the identified synchronization channel part of the RF carrier, wherein the position of the RF carrier in the operating band is not centered within a license block; and the method comprises at least one of receiving or transmitting a truncated transmission of an orthogonal frequency division multiplexing (OFDM) symbol, the truncated transmission comprising one or more blanked subcarriers on at least one side of the transmission. identifying a synchronization channel part of a radio frequency (RF) carrier in an operating band; obtaining system information for use in determining a position of the RF carrier in the operating band relative to the identified synchronization channel part of the RF carrier; and determining , based on the obtained system information, the position of the RF carrier in the operating band relative to the identified synchronization channel part of the RF carrier, wherein the position of the RF carrier in the operating band is not centered within a license block; and the method comprises at least one of receiving or transmitting a truncated transmission of an orthogonal frequency division multiplexing (OFDM) symbol, the truncated transmission comprising one or more blanked subcarriers on at least one side of the transmission.
An electronic device comprising: a housing; a first plate positioned on a front surface of the housing; a second plate positioned on a rear surface of the housing; an antenna radiator interposed between the first plate and the second plate; and a wireless communication circuit connected to the antenna radiator and configured to process a signal in a specific frequency band, wherein the antenna radiator includes at least one conductive fabric layer , a conductive coating layer , and a primer coating layer , wherein threads included in the fabric layer are alternatingly plated with a plurality of metals such that the at least one conductive fabric layer has resistance characteristics suitable for transmitting or receiving the signal in the specific frequency band, wherein the conductive coating layer is configured to prevent corrosion of the at least one conductive fabric layer and transmit the signal in the specific frequency band to the at least one conductive fabric layer, and wherein the primer coating layer is configured to prevent damage to the antenna radiator by the second plate of the electronic device, wherein the conductive coating layer is interposed between the primer coating layer and the at least one conductive fabric layer, and wherein the primer coating layer includes conductive powder so as to be conductive to transmit the signal in the specific frequency band to the conductive coating layer . a housing; a first plate positioned on a front surface of the housing; a second plate positioned on a rear surface of the housing; an antenna radiator interposed between the first plate and the second plate; and a wireless communication circuit connected to the antenna radiator and configured to process a signal in a specific frequency band, wherein the antenna radiator includes at least one conductive fabric layer , a conductive coating layer , and a primer coating layer , wherein threads included in the fabric layer are alternatingly plated with a plurality of metals such that the at least one conductive fabric layer has resistance characteristics suitable for transmitting or receiving the signal in the specific frequency band, wherein the conductive coating layer is configured to prevent corrosion of the at least one conductive fabric layer and transmit the signal in the specific frequency band to the at least one conductive fabric layer, and wherein the primer coating layer is configured to prevent damage to the antenna radiator by the second plate of the electronic device, wherein the conductive coating layer is interposed between the primer coating layer and the at least one conductive fabric layer, and wherein the primer coating layer includes conductive powder so as to be conductive to transmit the signal in the specific frequency band to the conductive coating layer .
Device for balancing the charge of an electric power storage device including a plurality of electrical storage elements (Et 1 ,... Et k ) connected in series, characterized in that it comprises: - at least two current-limiting DC/DC converters (30 i ) each having: ∘ an input intended to be connected to the terminals of a respective storage element (Et i ); ∘ an output intended to be connected to an electrical network having a voltage regulated at a lower level than the voltage across the terminals of the storage device ; ∘ a transformation law of the type Vout=K1 ∗ Ve-f(I) for I≤Iimax, where Vout is the potential difference at said output, K1 is a constant, Ve is the potential difference at said input, f(I) is an affine function of the courant I drawn at said output and limax is the current limitation of the converter and f(Iimax)<K1 ∗ Ve; ∘ an operation for regulating the current once I reaches limax. - at least two current-limiting DC/DC converters (30 i ) each having: ∘ an input intended to be connected to the terminals of a respective storage element (Et i ); ∘ an output intended to be connected to an electrical network having a voltage regulated at a lower level than the voltage across the terminals of the storage device ; ∘ a transformation law of the type Vout=K1 ∗ Ve-f(I) for I≤Iimax, where Vout is the potential difference at said output, K1 is a constant, Ve is the potential difference at said input, f(I) is an affine function of the courant I drawn at said output and limax is the current limitation of the converter and f(Iimax)<K1 ∗ Ve; ∘ an operation for regulating the current once I reaches limax. ∘ an input intended to be connected to the terminals of a respective storage element (Et i ); ∘ an output intended to be connected to an electrical network having a voltage regulated at a lower level than the voltage across the terminals of the storage device ; ∘ a transformation law of the type Vout=K1 ∗ Ve-f(I) for I≤Iimax, where Vout is the potential difference at said output, K1 is a constant, Ve is the potential difference at said input, f(I) is an affine function of the courant I drawn at said output and limax is the current limitation of the converter and f(Iimax)<K1 ∗ Ve; ∘ an operation for regulating the current once I reaches limax.
An apparatus, comprising: at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: compute , by a network controller for a primary path of a network, a protection path configured to protect a portion of the primary path; and send , by the network controller toward the network, protection path configuration information for the protection path, wherein the protection path is computed for an identifier that is configured to represent the portion of the primary path, wherein the identifier is associated with a first node of the primary path that is able to resolve the identifier to identify a sequence of hops of the portion of the primary path, characterised in that the protection path is computed based on a determination that a second node of the primary path that is upstream of the first node of the primary path is unable to resolve the identifier to identify the sequence of hops of the portion of the primary path. at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: compute , by a network controller for a primary path of a network, a protection path configured to protect a portion of the primary path; and send , by the network controller toward the network, protection path configuration information for the protection path, wherein the protection path is computed for an identifier that is configured to represent the portion of the primary path, wherein the identifier is associated with a first node of the primary path that is able to resolve the identifier to identify a sequence of hops of the portion of the primary path, characterised in that the protection path is computed based on a determination that a second node of the primary path that is upstream of the first node of the primary path is unable to resolve the identifier to identify the sequence of hops of the portion of the primary path. wherein the protection path is computed for an identifier that is configured to represent the portion of the primary path, wherein the identifier is associated with a first node of the primary path that is able to resolve the identifier to identify a sequence of hops of the portion of the primary path, characterised in that the protection path is computed based on a determination that a second node of the primary path that is upstream of the first node of the primary path is unable to resolve the identifier to identify the sequence of hops of the portion of the primary path.
A surgical system , comprising: a robotic device ; a surgical tool mounted on the robotic device ; and a processing circuit configured to: receive image data of an anatomy ; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user. a robotic device ; a surgical tool mounted on the robotic device ; and a processing circuit configured to: receive image data of an anatomy ; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user. receive image data of an anatomy ; generate a virtual bone model based on the image data; identify a soft tissue attachment point on the virtual bone model; plan placement of an implant based on the soft tissue attachment point; generate a control object based on the placement of the implant; control the robotic device to confine the surgical tool within the control obj ect; predict a line of action of a ligament based on the soft tissue attachment point; augment the virtual bone model with a virtual implant model of the implant; determine whether the line of action of the ligament intersects the virtual implant model; and in response to a determination that the line of action of the ligament intersects the virtual implant model, provide an alert to a user.
A data bus subscriber for processing data, wherein the data bus subscriber is connectable to a local bus , the data bus subscriber comprising: an input interface connectable to the local bus for receiving first local bus data (P1, P2, P3); an output interface connectable to the local bus for transmitting second local bus data (P1', P2', P3'); a processing component for clock-controlled processing of the first local bus data (P1, P2, P3) and/or of data stored in a memory and for outputting at least one control signal , wherein the working clock of the processing component is based on the clock rate of a bus clock of the local bus ; a logic unit adapted to change a quantity of the received first local bus data (P1, P2, P3) based on the control signal for generating the second local bus data (P1', P2', P3') to be transmitted; wherein the logic unit is further adapted to clock-controlled delaying of transmission of the second local bus data (P1', P2', P3') via the output interface . an input interface connectable to the local bus for receiving first local bus data (P1, P2, P3); an output interface connectable to the local bus for transmitting second local bus data (P1', P2', P3'); a processing component for clock-controlled processing of the first local bus data (P1, P2, P3) and/or of data stored in a memory and for outputting at least one control signal , wherein the working clock of the processing component is based on the clock rate of a bus clock of the local bus ; a logic unit adapted to change a quantity of the received first local bus data (P1, P2, P3) based on the control signal for generating the second local bus data (P1', P2', P3') to be transmitted; wherein the logic unit is further adapted to clock-controlled delaying of transmission of the second local bus data (P1', P2', P3') via the output interface .
Magnetic filter for removing metallic impurities, the magnetic filter consisting of an external case , a separator , and a magnet , wherein the separator is fitted in its internal case with at least one spiral coil , wherein a magnet site containing the magnet is situated in the centre of the separator characterized in that the magnet site comprises openings through which metallic impurities are entrapped by the magnet .
A method of forming a glass preform of predetermined length, comprising: providing a length of glass material to be separated to form a preform length and a remaining length ; forming a notch in the glass material; inducing a tensile stress in excess of the tensile strength of the glass in an area adjacent to the notch ; and separating the preform length from the remaining length at the notch , characterized in that a tensile stress in excess of the tensile strength of the glass is induced by deflecting a portion of the glass material using a tool, wherein either the tool is an impact tool comprising an impact face that is contoured to correspond with a portion of an outside surface of the glass material, wherein the deflection is a transverse deflection of the glass material, or the tool is a set of two or more grippers (1302/1304; 1308/1310) that grip the glass material and are displaced with respect to each other perpendicular to a longitudinal axis of the glass material. providing a length of glass material to be separated to form a preform length and a remaining length ; forming a notch in the glass material; inducing a tensile stress in excess of the tensile strength of the glass in an area adjacent to the notch ; and separating the preform length from the remaining length at the notch , characterized in that a tensile stress in excess of the tensile strength of the glass is induced by deflecting a portion of the glass material using a tool, wherein either the tool is an impact tool comprising an impact face that is contoured to correspond with a portion of an outside surface of the glass material, wherein the deflection is a transverse deflection of the glass material, or the tool is a set of two or more grippers (1302/1304; 1308/1310) that grip the glass material and are displaced with respect to each other perpendicular to a longitudinal axis of the glass material.
A herbicidal composition comprising a herbicidally effective amount of (a) (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane, any of its individual enantiomers or any non-racemic mixture thereof (herbicide A) and (b) at least one pigment synthesis inhibitor which is clomazone (B.3) (herbicide B) wherein the weight ratio of herbicide A to herbicide B is from 1:0.007 to 1:20.
A method for determining a cardiac phase in magnet resonance imaging comprising the steps: - providing an acquired MRI-Dataset (RD) comprising measurements of the heart over a predefined measuring-time period, - providing a trained deep learning network comprising an input layer (E), an output layer (S) and a number of hidden layers (CR, MP) between input layer (E) and output layer (S), the layers processing input data (ID) entered into the input layer (E), wherein the deep learning network is designed and trained to output a probability or some other label of a certain cardiac phase at a certain time in the entered input data (ID), - creating the input data (ID) based on and/or calculated from the acquired MRI-dataset (RD) and entering the input data (ID) into the input layer (E) of the deep learning network , - outputting the results of the trained deep learning network , characterized in that the input data (ID) comprise a continuous temporal window of a one-dimensional Superior-Inferior projection and that the results comprise probabilities or other label for different classes of a cardiac cycle for every one-dimensional Superior-Inferior projection within the continuous temporal window. - providing an acquired MRI-Dataset (RD) comprising measurements of the heart over a predefined measuring-time period, - providing a trained deep learning network comprising an input layer (E), an output layer (S) and a number of hidden layers (CR, MP) between input layer (E) and output layer (S), the layers processing input data (ID) entered into the input layer (E), wherein the deep learning network is designed and trained to output a probability or some other label of a certain cardiac phase at a certain time in the entered input data (ID), - creating the input data (ID) based on and/or calculated from the acquired MRI-dataset (RD) and entering the input data (ID) into the input layer (E) of the deep learning network , - outputting the results of the trained deep learning network ,
Device for transporting tubular bag bodies , comprising a longitudinal transport apparatus by means of which the tubular bag bodies can be transported substantially in the direction of the longitudinal extent thereof, comprising a transverse transport apparatus by means of which the tubular bag bodies can be transported substantially perpendicularly to the longitudinal extent thereof, and comprising a transfer apparatus for transferring the tubular bag bodies from the longitudinal transport apparatus to the transverse transport apparatus , the transfer apparatus having a support surface for supporting the tubular bag bodies , the transfer apparatus having at least one upper support surface and one lower support surface for the tubular bag bodies , a switching element being provided which can be adjusted between an upper position and a lower position, it being possible for the tubular bag bodies to be supplied to the upper support surface in the upper position of the switching element and to the lower support surface in the lower position of the switching element , an upper conveyor surface which slopes upwards in the longitudinal direction being provided between the switching element and the upper support surface and a lower conveyor surface which slopes downwards in the longitudinal direction being provided between the switching element and the lower support surface , characterised in that the switching element has an upper guide element and a lower guide element , a guide slot for the passage of the tubular bag bodies being formed between the upper guide element and the lower guide element , a wedge element for forming front portions of the upper and lower conveyor surface being provided between the switching element and the transfer apparatus , the wedge element being pivotable between an upper position corresponding to the lower position of the switching element and a lower position corresponding to the upper position of the switching element .
A toothbrush head for an electric toothbrush comprising a brush which comprises a bristled dome joined to an annular carrier , wherein the bristled dome comprises a supporting dome having a convex outer surface, and bristles which extend outwards from the convex outer surface, characterised in that the bristled dome is a monolithic structure comprising a plurality of bristle bundles each having a distal end and proximal end , wherein the bristles of the bristle bundles are fused together adjacent their proximal ends, by the application of heat, to form the supporting dome. wherein the bristled dome comprises a supporting dome having a convex outer surface, and bristles which extend outwards from the convex outer surface, characterised in that the bristled dome is a monolithic structure comprising a plurality of bristle bundles each having a distal end and proximal end , wherein the bristles of the bristle bundles are fused together adjacent their proximal ends, by the application of heat, to form the supporting dome.