mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device that constitutes a neural network in which a plurality of sets, each including a plurality of synapse bonds and a neuron section , are connected with each other, the semiconductor device comprising: a semiconductor substrate portion , and an insulating layer portion stacked on the semiconductor substrate portion , the synapse bonds configured to perform non-contact communication using magnetic coupling, wherein the synapse bonds have a reception circuit unit formed at the semiconductor substrate portion and reception coils formed at the insulating layer portion , wherein the reception circuit unit and the reception coils are connected by wiring lines formed in the insulating layer portion ; and the neuron sections that include a wired connection and a logical circuit, wherein the neuron sections have a transmission circuit unit formed at the semiconductor substrate portion and transmission coils formed at the insulating layer portion , wherein the transmission circuit unit and the transmission coils are connected by wiring lines formed in the insulating layer portion , wherein the semiconductor device has a connection array where the synapse bonds and the neuron sections are spread three-dimensionally, wherein some or all reception coils and some or all transmission coils are disposed to overlap the transmission circuit unit and the reception circuit unit in a vertical direction (X), and wherein grouping of the connection array is performed and the semiconductor device has a function of reconfiguring a configuration including the number of groupings and a size thereof. a semiconductor substrate portion , and an insulating layer portion stacked on the semiconductor substrate portion , the synapse bonds configured to perform non-contact communication using magnetic coupling, wherein the synapse bonds have a reception circuit unit formed at the semiconductor substrate portion and reception coils formed at the insulating layer portion , wherein the reception circuit unit and the reception coils are connected by wiring lines formed in the insulating layer portion ; and the neuron sections that include a wired connection and a logical circuit, wherein the neuron sections have a transmission circuit unit formed at the semiconductor substrate portion and transmission coils formed at the insulating layer portion , wherein the transmission circuit unit and the transmission coils are connected by wiring lines formed in the insulating layer portion , wherein the semiconductor device has a connection array where the synapse bonds and the neuron sections are spread three-dimensionally, wherein some or all reception coils and some or all transmission coils are disposed to overlap the transmission circuit unit and the reception circuit unit in a vertical direction (X), and wherein grouping of the connection array is performed and the semiconductor device has a function of reconfiguring a configuration including the number of groupings and a size thereof.
A method of reducing noise comprising: receiving a signal representative of noise in a cancellation zone , wherein the signal representative of noise in the cancellation zone is a microphone signal; identifying a frequency within the signal to be reduced in the cancellation zone, wherein said identifying includes analyzing the signal in a pre-selected range of frequencies for the presence of narrowband noise associated with a cavity resonance; down converting the signal to place the identified frequency at baseband; down converting a speaker command signal to place the identified frequency at baseband; generating a baseband anti-noise signal based upon the down converted signal and the down converted speaker command signal; up converting the baseband anti-noise signal to the identified frequency to produce an anti-noise signal having components at the identified frequency; and providing the anti-noise signal to be transduced into an acoustic signal. receiving a signal representative of noise in a cancellation zone , wherein the signal representative of noise in the cancellation zone is a microphone signal; identifying a frequency within the signal to be reduced in the cancellation zone, wherein said identifying includes analyzing the signal in a pre-selected range of frequencies for the presence of narrowband noise associated with a cavity resonance; down converting the signal to place the identified frequency at baseband; down converting a speaker command signal to place the identified frequency at baseband; generating a baseband anti-noise signal based upon the down converted signal and the down converted speaker command signal; up converting the baseband anti-noise signal to the identified frequency to produce an anti-noise signal having components at the identified frequency; and providing the anti-noise signal to be transduced into an acoustic signal.
An imaging lens, having only six lenses arranged, in order from an object side, in: a first lens group (I) having a positive refractive power; and a second lens group (II) having a negative refractive power; wherein the widest air space in the imaging lens is between the first lens group and the second lens group; the first lens group has in order from the object side a negative first lens (L1) having a concave face on the object side, a positive second lens (L2) having a convex face on both sides, an aperture stop (S), a negative third lens (L3) having a concave face on the object side, a positive fourth lens (L4) having a convex face on an image side and a positive fifth lens (L5) having a convex face on the image side, and the second lens group is a negative meniscus sixth lens (L6) having a concave face on the object side; wherein a distance L from a most object-side face of the first lens group to an image face in a state focused on an infinite object and a distance D 1G-2G from a most image-side face of the first lens group to a most object-side face of the second lens group in a state focused on an infinite object satisfy the following condition : 0.15 < D 1 G − 2 G / L < 0.50 a first lens group (I) having a positive refractive power; and a second lens group (II) having a negative refractive power; wherein the widest air space in the imaging lens is between the first lens group and the second lens group; the first lens group has in order from the object side a negative first lens (L1) having a concave face on the object side, a positive second lens (L2) having a convex face on both sides, an aperture stop (S), a negative third lens (L3) having a concave face on the object side, a positive fourth lens (L4) having a convex face on an image side and a positive fifth lens (L5) having a convex face on the image side, and the second lens group is a negative meniscus sixth lens (L6) having a concave face on the object side; wherein a distance L from a most object-side face of the first lens group to an image face in a state focused on an infinite object and a distance D 1G-2G from a most image-side face of the first lens group to a most object-side face of the second lens group in a state focused on an infinite object satisfy the following condition : 0.15 < D 1 G − 2 G / L < 0.50
A damping arrangement for a gas turbine, the damping arrangement comprising a damper and a combustion chamber , the damper comprising: two concentric hollow shapes (10 and 20), each having a wall (11 and 12), wherein the walls (11 and 12) form an annular volume therebetween, one or more necks for connecting the damper to a combustion chamber at corresponding one or more contact points, the one or more necks further being connected to the annular volume , wherein one end of the one or more necks is connected to the annular volume and the other end of the one or more necks is connected to a front panel of the combustion chamber ; wherein the annular volume comprises one or more plates (70, 72, 74 and 1301) extending longitudinally between the walls (11 and 12) of the two concentric hollow shapes (10 and 20); wherein the one or more plates (70, 72, 74 and 1301) defines a first annular volume at a first side of the plate and a second annular volume at a second side of the plate; and characterized in that the one or more plates (70, 72, 74 and 1301) are movable, wherein the one or more plates (70, 72, 74 and 1301) have one or more necks (90, 92, 94, 96, 97 and 98) therethrough so as to interconnect the first and second annular volumes. two concentric hollow shapes (10 and 20), each having a wall (11 and 12), wherein the walls (11 and 12) form an annular volume therebetween, one or more necks for connecting the damper to a combustion chamber at corresponding one or more contact points, the one or more necks further being connected to the annular volume , wherein one end of the one or more necks is connected to the annular volume and the other end of the one or more necks is connected to a front panel of the combustion chamber ; wherein the annular volume comprises one or more plates (70, 72, 74 and 1301) extending longitudinally between the walls (11 and 12) of the two concentric hollow shapes (10 and 20); wherein the one or more plates (70, 72, 74 and 1301) defines a first annular volume at a first side of the plate and a second annular volume at a second side of the plate; and characterized in that the one or more plates (70, 72, 74 and 1301) are movable, wherein the one or more plates (70, 72, 74 and 1301) have one or more necks (90, 92, 94, 96, 97 and 98) therethrough so as to interconnect the first and second annular volumes.
A method of machining a workpiece using a machine tool, the machine tool comprising a tool mount carrying a tool, a workpiece mount carrying a workpiece, a drive mechanism for moving at least one of the tool mount and the workpiece mount relative to the other, and a control arrangement for controlling the drive mechanism, wherein the method comprises moving at least one of the tool mount and the workpiece mount with the drive mechanism under the control of the control arrangement so that: the tool contacts a portion of the workpiece to commence a machining operation; and the tool then removes material from the portion of the workpiece until completion of the machining operation, the movement being such that the relative velocity between the tool and the workpiece decreases continuously during the majority of the time that the tool and the workpiece are in contact with each other during the machining operation, characterised in that at a predetermined point partway through the machining operation, at least one dimension of the portion of the workpiece being machined is detected, and a new relative velocity profile to be achieved between the tool and the workpiece over at least a portion of the remainder of the machining operation is determined by the control arrangement with reference to the detected dimension. the tool contacts a portion of the workpiece to commence a machining operation; and the tool then removes material from the portion of the workpiece until completion of the machining operation, the movement being such that the relative velocity between the tool and the workpiece decreases continuously during the majority of the time that the tool and the workpiece are in contact with each other during the machining operation, characterised in that at a predetermined point partway through the machining operation, at least one dimension of the portion of the workpiece being machined is detected, and a new relative velocity profile to be achieved between the tool and the workpiece over at least a portion of the remainder of the machining operation is determined by the control arrangement with reference to the detected dimension.
A method for deinterleaving data comprising: writing metrics into a buffer having 172,032 metrics arranged into an 84 by 8 array of blocks, wherein each block is a 16 by 16 array of metrics and the buffer is partitioned into 4 subsets of rows according to a predetermined write sequence, wherein a row comprises 8 blocks; wherein the predetermined write sequence comprises writing metrics into the buffer in groups of 8 metrics; wherein each of the groups of 8 metrics are written in turn to each subset, in a column by column ordering; applying a 16 by 16 mapping table to each of the blocks to rearrange the metrics in each of the blocks, wherein the 16 by 16 mapping table specifies a mapping to a rearranged location for each metric in each respective block; and reading the metrics out of the buffer to serve as input for a first decoder and a second decoder, wherein the first decoder and the second decoder read successive even and odd rows of blocks, respectively, from the buffer. writing metrics into a buffer having 172,032 metrics arranged into an 84 by 8 array of blocks, wherein each block is a 16 by 16 array of metrics and the buffer is partitioned into 4 subsets of rows according to a predetermined write sequence, wherein a row comprises 8 blocks; wherein the predetermined write sequence comprises writing metrics into the buffer in groups of 8 metrics; wherein each of the groups of 8 metrics are written in turn to each subset, in a column by column ordering; applying a 16 by 16 mapping table to each of the blocks to rearrange the metrics in each of the blocks, wherein the 16 by 16 mapping table specifies a mapping to a rearranged location for each metric in each respective block; and reading the metrics out of the buffer to serve as input for a first decoder and a second decoder, wherein the first decoder and the second decoder read successive even and odd rows of blocks, respectively, from the buffer.
Tyre pressure control system for a vehicle for determining tyre-specific parameters, comprising: a tyre pressure sensor attachable to a rim of a pneumatic tyre of the vehicle , tyre valve having a valve stem with a longitudinal valve bore opening in a dome-shaped end face of a valve base , a screw member which connects the tyre pressure sensor and the tyre valve to the valve base thereof by engaging with the valve bore , and a union nut which serves to fix the tyre valve to the rim and is screwed onto a threaded portion of the valve stem , characterized in that at least one elastically deformable clamping element is arranged inside the union nut and clamps a non-threaded portion of the valve stem , wherein the union nut and the valve stem are connected to each other in torque-resistant manner to a predetermined mounting torque via the at least one clamping element , and when the predetermined assembly torque is exceeded the at least one clamping element is elastically deformed in such manner that the union nut is rotatable relative to the valve stem . a tyre pressure sensor attachable to a rim of a pneumatic tyre of the vehicle , tyre valve having a valve stem with a longitudinal valve bore opening in a dome-shaped end face of a valve base , a screw member which connects the tyre pressure sensor and the tyre valve to the valve base thereof by engaging with the valve bore , and a union nut which serves to fix the tyre valve to the rim and is screwed onto a threaded portion of the valve stem , characterized in that at least one elastically deformable clamping element is arranged inside the union nut and clamps a non-threaded portion of the valve stem , wherein the union nut and the valve stem are connected to each other in torque-resistant manner to a predetermined mounting torque via the at least one clamping element , and when the predetermined assembly torque is exceeded the at least one clamping element is elastically deformed in such manner that the union nut is rotatable relative to the valve stem .
A microelectromechanical systems, MEMS, gyroscope , comprising: a substrate ; a proof mass suspended above the substrate and comprising an array of enclosed openings ; and an array of out-of-plane quadrature trim electrodes on the substrate, separated from the proof mass in a direction normal to the proof mass, and laterally positioned to overlap interior edges of the proof mass at the array of openings, wherein the array of out-of-plane quadrature trim electrodes comprises pairs of out-of-plane quadrature trim electrodes, whereby each opening of the array of enclosed openings has a pair of underlying out-of-plane quadrature trim electrodes. a substrate ; a proof mass suspended above the substrate and comprising an array of enclosed openings ; and an array of out-of-plane quadrature trim electrodes on the substrate, separated from the proof mass in a direction normal to the proof mass, and laterally positioned to overlap interior edges of the proof mass at the array of openings, wherein the array of out-of-plane quadrature trim electrodes comprises pairs of out-of-plane quadrature trim electrodes, whereby each opening of the array of enclosed openings has a pair of underlying out-of-plane quadrature trim electrodes.
Assembly for connecting or fastening accessories to building cladding panels or slabs comprising: - at least two separated gripping and coupling components , said at least two gripping and coupling components having an inner, in use, face arranged to abut against a respective end of a panel or of superimposed ends of two adjacent panels or slabs and an outer, in use face ; - at least one tightening and fastening component arranged to engage respective engagement portions of said at least two gripping and coupling components , so as to tighten them towards each other and close to the respective portions of a panel or of superimposed ends of two adjacent panels , said engagement portions being delimited on said outer face or in a zone between said outer face and said inner face ; - said tightening and fastening component having at least one part arranged to allow the fastening of an accessory, wherein said at least one tightening and fastening component comprises an intermediate body as well as at least two fins each extending starting from a respective portion or end of said intermediate body , so as to define between them a housing zone (HZ) for said at least two gripping and coupling components close to a panel or to superimposed ends of two adjacent panels , each fin (4b1, 4b2) having means for engaging the engagement portions of a gripping and coupling component , wherein said engagement means are arranged to engage said engagement portions by snapping. - at least two separated gripping and coupling components , said at least two gripping and coupling components having an inner, in use, face arranged to abut against a respective end of a panel or of superimposed ends of two adjacent panels or slabs and an outer, in use face ; - at least one tightening and fastening component arranged to engage respective engagement portions of said at least two gripping and coupling components , so as to tighten them towards each other and close to the respective portions of a panel or of superimposed ends of two adjacent panels , said engagement portions being delimited on said outer face or in a zone between said outer face and said inner face ; - said tightening and fastening component having at least one part arranged to allow the fastening of an accessory, wherein said at least one tightening and fastening component comprises an intermediate body as well as at least two fins each extending starting from a respective portion or end of said intermediate body , so as to define between them a housing zone (HZ) for said at least two gripping and coupling components close to a panel or to superimposed ends of two adjacent panels , each fin (4b1, 4b2) having means for engaging the engagement portions of a gripping and coupling component , wherein said engagement means are arranged to engage said engagement portions by snapping.
An aluminum alloy, comprising, in percentage by weight and based on a total amount of the aluminum alloy: Si 8-10%, Mg 0.2-0.4%, Mn 0-0.01 %, Ti 0-0.01 %, Fe 0.1-0.3%, B 0.02-0.06%, Ce 0.15-0.3%, optionally Sr 0.03-0.05%, and the balance of aluminum.
An acoustic wave sensor, comprising: a piezoelectric layer ; first and second electrodes arranged with the piezoelectric layer in a piezoelectric transducer circuit; and a polymeric sensing layer for adsorbing a gas-phase analyte, the adsorption of which analyte causes a change in resonant frequency of the piezoelectric transducer circuit, wherein the polymeric sensing layer comprises: (a) a polymer chosen from substituted or unsubstituted: polyarylenes comprising the reaction product of monomers comprising a first monomer comprising an aromatic acetylene group and a second monomer comprising a cyclopentadienone group, wherein the second monomer comprising a cyclopentadienone group has the structure shown in formula : wherein each R 7 is independently chosen from H, substituted or unsubstituted C 1-6 alkyl, substituted or unsubstituted C 6 - 20 aryl, or substituted or unsubstituted C 4 - 20 heteroaryl, and Ar 1 is an aromatic moiety; or novolacs; or a cured product thereof; or (b) a polymer formed from one or more monomers comprising a monomer comprising a polar group-substituted arylcyclobutene group, or a cured product thereof. a piezoelectric layer ; first and second electrodes arranged with the piezoelectric layer in a piezoelectric transducer circuit; and a polymeric sensing layer for adsorbing a gas-phase analyte, the adsorption of which analyte causes a change in resonant frequency of the piezoelectric transducer circuit, wherein the polymeric sensing layer comprises: (a) a polymer chosen from substituted or unsubstituted: polyarylenes comprising the reaction product of monomers comprising a first monomer comprising an aromatic acetylene group and a second monomer comprising a cyclopentadienone group, wherein the second monomer comprising a cyclopentadienone group has the structure shown in formula : wherein each R 7 is independently chosen from H, substituted or unsubstituted C 1-6 alkyl, substituted or unsubstituted C 6 - 20 aryl, or substituted or unsubstituted C 4 - 20 heteroaryl, and Ar 1 is an aromatic moiety; or novolacs; or a cured product thereof; or (b) a polymer formed from one or more monomers comprising a monomer comprising a polar group-substituted arylcyclobutene group, or a cured product thereof. (a) a polymer chosen from substituted or unsubstituted: polyarylenes comprising the reaction product of monomers comprising a first monomer comprising an aromatic acetylene group and a second monomer comprising a cyclopentadienone group, wherein the second monomer comprising a cyclopentadienone group has the structure shown in formula : wherein each R 7 is independently chosen from H, substituted or unsubstituted C 1-6 alkyl, substituted or unsubstituted C 6 - 20 aryl, or substituted or unsubstituted C 4 - 20 heteroaryl, and Ar 1 is an aromatic moiety; or novolacs; or a cured product thereof; or (b) a polymer formed from one or more monomers comprising a monomer comprising a polar group-substituted arylcyclobutene group, or a cured product thereof.