mhurhangee/patent-ind-claim-en huggingface dataset:
Cryo-compatible quantum computing arrangement , comprising: a microelectronic quantum computing component with a substrate structure , a plurality of first contact elements (20-1), and a plurality of conductive feedthroughs through the substrate structure , wherein the conductive feedthroughs are electrically connected at a first main surface region (10-1) of the substrate structure to associated first contact elements (20-1) of the microelectronic quantum computing component , and a further microelectronic component with a plurality of second contact elements (20-2), wherein the conductive feedthroughs are electrically connected at a second main surface region (10-2) of the substrate structure to associated second contact elements (20-2) of the further microelectronic component , and characterized in that the conductive feedthroughs each comprise, between the first contact element (20-1) and the second contact element (20-2), a layer element (30-1) with a first material with a beta-modification of tungsten, which is superconducting at a quantum computer operating temperature below the transition temperature for the superconductivity, and a filling element (30-2) with a second material, which is electrically conductive above the transition temperature for the superconductivity. a microelectronic quantum computing component with a substrate structure , a plurality of first contact elements (20-1), and a plurality of conductive feedthroughs through the substrate structure , a substrate structure , a plurality of first contact elements (20-1), and a plurality of conductive feedthroughs through the substrate structure , wherein the conductive feedthroughs are electrically connected at a first main surface region (10-1) of the substrate structure to associated first contact elements (20-1) of the microelectronic quantum computing component , and a further microelectronic component with a plurality of second contact elements (20-2), wherein the conductive feedthroughs are electrically connected at a second main surface region (10-2) of the substrate structure to associated second contact elements (20-2) of the further microelectronic component , and characterized in that the conductive feedthroughs each comprise, between the first contact element (20-1) and the second contact element (20-2), a layer element (30-1) with a first material with a beta-modification of tungsten, which is superconducting at a quantum computer operating temperature below the transition temperature for the superconductivity, and a filling element (30-2) with a second material, which is electrically conductive above the transition temperature for the superconductivity.
An intervertebral implant comprising: a spacer portion defining a spacer trailing surface and a spacer leading surface opposite the spacer trailing surface ; and a plate portion defining a plate trailing surface and a plate leading surface opposite the plate trailing surface with respect to a first direction, the plate portion further defining a top surface , a bottom surface opposite the top surface with respect to a second direction, the plate portion configured to be coupled to the spacer portion such that the plate leading surface faces the spacer trailing surface , characterized in that the plate portion is defining a recess configured to receive an implant insertion tool, the recess partially defined by the plate trailing surface such that the recess extends toward the plate leading surface and terminates at a first surface that faces in a direction opposite the first direction, and the recess partially defined by the top surface such that the recess extends from the top surface and terminates at a second surface that faces in a direction opposite the second direction. a spacer portion defining a spacer trailing surface and a spacer leading surface opposite the spacer trailing surface ; and a plate portion defining a plate trailing surface and a plate leading surface opposite the plate trailing surface with respect to a first direction, the plate portion further defining a top surface , a bottom surface opposite the top surface with respect to a second direction, the plate portion configured to be coupled to the spacer portion such that the plate leading surface faces the spacer trailing surface , characterized in that the plate portion is defining a recess configured to receive an implant insertion tool, the recess partially defined by the plate trailing surface such that the recess extends toward the plate leading surface and terminates at a first surface that faces in a direction opposite the first direction, and the recess partially defined by the top surface such that the recess extends from the top surface and terminates at a second surface that faces in a direction opposite the second direction.
Polymerizable composition comprising a) at least one cyclic amide, b) from 1.6 to 5.0% by weight, preferably from 1.8 to 3.5% by weight, of at least one blocked polyisocyanate, and c) from 0.8 to 2.0% by weight of at least one catalyst for the polymerization of the cyclic amide and d) from 0.1 to 0.8% by weight, preferably from 0.3 to 0.6% by weight, of the dye C.I. Solvent Black 7, where the weight data for components b) to d) are based on the entirety of components a) to d), and the entirety of components a) to d) provides 100%. a) at least one cyclic amide, b) from 1.6 to 5.0% by weight, preferably from 1.8 to 3.5% by weight, of at least one blocked polyisocyanate, and c) from 0.8 to 2.0% by weight of at least one catalyst for the polymerization of the cyclic amide and d) from 0.1 to 0.8% by weight, preferably from 0.3 to 0.6% by weight, of the dye C.I. Solvent Black 7,
An apparatus to cover at least one mobile device component, comprising: a) a cover assembly , including a front camera cover to cover a front camera , wherein said cover assembly further includes an actuating member , wherein said actuating member urges said front camera cover towards said front camera until said front camera is covered, wherein said actuating member is located on a back surface of a mobile device , wherein said front camera cover begins on said back surface and moves along said back surface until said front camera cover wraps over a top edge of said mobile device to then cover said front camera , said cover assembly has a thickness and a tunnel located within said thickness; and b) a case assembly that includes said cover assembly , wherein said case assembly is adapted to be mounted to said mobile device . a) a cover assembly , including a front camera cover to cover a front camera , wherein said cover assembly further includes an actuating member , wherein said actuating member urges said front camera cover towards said front camera until said front camera is covered, wherein said actuating member is located on a back surface of a mobile device , wherein said front camera cover begins on said back surface and moves along said back surface until said front camera cover wraps over a top edge of said mobile device to then cover said front camera , said cover assembly has a thickness and a tunnel located within said thickness; and b) a case assembly that includes said cover assembly , wherein said case assembly is adapted to be mounted to said mobile device .
A method of installing damping material on a structure , comprising: moving a damping material placement head over the structure; and, using the head to place damping material on the structure; said damping material including a tape comprising a layer of adhesive laminated to opposite sides of a layer of viscoelastic material and a thin layer of backing placed over each adhesive; the method further comprising removing said backings from said opposite sides prior to said placement. moving a damping material placement head over the structure; and, using the head to place damping material on the structure; said damping material including a tape comprising a layer of adhesive laminated to opposite sides of a layer of viscoelastic material and a thin layer of backing placed over each adhesive; the method further comprising removing said backings from said opposite sides prior to said placement.
A method of synchronizing a system (SYS) adapted to receive (S1) a stream (STR) of audio data (AD) and playback the audio data, the system comprising a plurality of sub-systems (SS1, SS2, SS3) each comprising a master device (MD1, MD2, MD3) and respective slave devices (SD11, SD12, SD21, SD22, SD31, SD32) connected to the master device through a Bluetooth usage, at least one master device (MD1, MD2, MD3) comprising a respective Bluetooth chip configured for creating a respective point-to-multipoint link from said Bluetooth chip to the respective slave devices (SD11, SD12, SD21, SD22, SD31, SD32), each master device being configured to receive all or part of the audio data and send the received audio data to the slave devices through said Bluetooth usage for playback by the slave devices, the system (SYS) comprising a synchronization module (SYNC), the method comprising: a. obtaining (S2), by the synchronization module (SYNC), respective internal latency data of the sub-systems (SS1, SS2, SS3), the internal latency data of a given sub-system being representative of an internal latency (l i ) of the sub-system which corresponds to a response time between reception of the audio data by the sub-system and playback of the audio data by the slave devices, b. based on the internal latency data of the plurality of sub-systems, determining (S3), by the synchronization module (SYNC), respective delays (d;) each to be applied by a given sub-system (SS1, SS2, SS3) between reception of the audio data and playback of the audio data by the slave devices of the sub-system, c. by each sub-system, applying (S4) the corresponding delay for playback of the audio data. a. obtaining (S2), by the synchronization module (SYNC), respective internal latency data of the sub-systems (SS1, SS2, SS3), the internal latency data of a given sub-system being representative of an internal latency (l i ) of the sub-system which corresponds to a response time between reception of the audio data by the sub-system and playback of the audio data by the slave devices, b. based on the internal latency data of the plurality of sub-systems, determining (S3), by the synchronization module (SYNC), respective delays (d;) each to be applied by a given sub-system (SS1, SS2, SS3) between reception of the audio data and playback of the audio data by the slave devices of the sub-system, c. by each sub-system, applying (S4) the corresponding delay for playback of the audio data.
A computer implemented method for correcting a user interface device, UID, tracking input which is data representing movements of a UID in a robotic surgery system , the method comprising operations performed by a processor for: receiving a sequence of tracking input samples that are measures of position or orientation of a user interface device, UID, being held by a user; in a prediction phase of a linear quadratic estimator, LQE, computing a current output sample of a state of the LQE that is an estimate of the position or orientation of the UID, wherein the current output sample is computed based on i) a previously computed output sample, and ii) a velocity term, wherein computing the current output sample comprises fitting a line to a plurality of previously computed output samples that are within a window and taking a slope of the line as the velocity term; and in an update phase of the LQE, computing an updated output sample of the state of the LQE, based on i) a previously computed output sample from the prediction phase, and ii) a tracking input sample. receiving a sequence of tracking input samples that are measures of position or orientation of a user interface device, UID, being held by a user; in a prediction phase of a linear quadratic estimator, LQE, computing a current output sample of a state of the LQE that is an estimate of the position or orientation of the UID, wherein the current output sample is computed based on i) a previously computed output sample, and ii) a velocity term, wherein computing the current output sample comprises fitting a line to a plurality of previously computed output samples that are within a window and taking a slope of the line as the velocity term; and in an update phase of the LQE, computing an updated output sample of the state of the LQE, based on i) a previously computed output sample from the prediction phase, and ii) a tracking input sample.
A laying machine for laying at least one flexible casing or tube, cable or wire including: - a blade arrangement for making a trench in the ground, - a consolidation and laying means being arranged behind the blade arrangement , for clearing and safeguarding the trench from collapsing while laying at least one flexible casing or tube, cable or wire into the trench, characterised in that during a trench making, consolidation and laying operation the lowest portion of the consolidation and laying means is arranged above the lowest portion of the blade arrangement , preferably between 10-100 mm above, more preferably 10-60 mm, most preferably 20-50 mm. - a blade arrangement for making a trench in the ground, - a consolidation and laying means being arranged behind the blade arrangement , for clearing and safeguarding the trench from collapsing while laying at least one flexible casing or tube, cable or wire into the trench, characterised in that during a trench making, consolidation and laying operation the lowest portion of the consolidation and laying means is arranged above the lowest portion of the blade arrangement , preferably between 10-100 mm above, more preferably 10-60 mm, most preferably 20-50 mm.
An object-detection system suitable for use on an autonomous vehicle, said object-detection system comprising a camera , a radar-sensor , and a controller in communication with the camera and the radar-sensor and characterized in that : the camera is configured to detect a travel-lane of a roadway traveled by a host-vehicle ; the radar-sensor is configured to detect targets in a field-of-view of the radar-sensor that includes and extends past the roadway , a plurality of the targets defining a boundary of the roadway ; and the controller is configured to: determine that a collection of targets is a stationary-object that defines a line ; classify the stationary-object as an overpass responsive to determining that the line extends beyond the boundary of the roadway and moving-vehicles are traveling on the stationary-object ; and classify the stationary-object as an impediment responsive to determining that the line overlays a portion of the travel-lane traveled by the host-vehicle and does not extend beyond the boundary of the roadway . the camera is configured to detect a travel-lane of a roadway traveled by a host-vehicle ; the radar-sensor is configured to detect targets in a field-of-view of the radar-sensor that includes and extends past the roadway , a plurality of the targets defining a boundary of the roadway ; and the controller is configured to: determine that a collection of targets is a stationary-object that defines a line ; classify the stationary-object as an overpass responsive to determining that the line extends beyond the boundary of the roadway and moving-vehicles are traveling on the stationary-object ; and classify the stationary-object as an impediment responsive to determining that the line overlays a portion of the travel-lane traveled by the host-vehicle and does not extend beyond the boundary of the roadway . determine that a collection of targets is a stationary-object that defines a line ; classify the stationary-object as an overpass responsive to determining that the line extends beyond the boundary of the roadway and moving-vehicles are traveling on the stationary-object ; and classify the stationary-object as an impediment responsive to determining that the line overlays a portion of the travel-lane traveled by the host-vehicle and does not extend beyond the boundary of the roadway .
Device for treatment of body tissue, in particular for the permanent occlusion of varicose veins, preferably in the lower limbs, of varicocele and/or of vascular malformations and/or for the use in aesthetic surgeries, preferably laser assisted lipolysis, and/or for tumor treatment by means of laser induced thermotherapy and/or photodynamic therapy, said device comprising a flexible wave guide and a light diffuser capable of circumferentially and endoluminally irradiating said tissue by laser light energy, said diffuser being connectable at its proximal end to a source of laser light energy via said flexible wave guide comprising a fiber optic core covered by an optical cladding having a refractive index smaller than that of the core , wherein in the cladding and/or in the core imperfections are provided, designed as recesses and adapted to direct the light, preferably to refract and/or reflect the light propagating within the core and/or its optical cladding in generally radial directions, wherein a cap transparent to the laser light enclosing the distal end of the core and its optical cladding in a fluid tight and/or liquid tight manner is provided, characterized in that the outer surface of said optical cladding is fused in the region (A) between said imperfections to the inner surface , preferably the inner diameter, of the cap and in that the outer surface of said optical cladding extending over a distance in front of and/or behind the region (A) provided with the imperfections is fused to the inner surface , preferably the inner diameter, of the cap . in particular for the permanent occlusion of varicose veins, preferably in the lower limbs, of varicocele and/or of vascular malformations and/or for the use in aesthetic surgeries, preferably laser assisted lipolysis, and/or for tumor treatment by means of laser induced thermotherapy and/or photodynamic therapy, said device comprising a flexible wave guide and a light diffuser capable of circumferentially and endoluminally irradiating said tissue by laser light energy, said diffuser being connectable at its proximal end to a source of laser light energy via said flexible wave guide comprising a fiber optic core covered by an optical cladding having a refractive index smaller than that of the core , wherein in the cladding and/or in the core imperfections are provided, designed as recesses and adapted to direct the light, preferably to refract and/or reflect the light propagating within the core and/or its optical cladding in generally radial directions, wherein a cap transparent to the laser light enclosing the distal end of the core and its optical cladding in a fluid tight and/or liquid tight manner is provided, characterized in that the outer surface of said optical cladding is fused in the region (A) between said imperfections to the inner surface , preferably the inner diameter, of the cap and in that the outer surface of said optical cladding extending over a distance in front of and/or behind the region (A) provided with the imperfections is fused to the inner surface , preferably the inner diameter, of the cap .
A biodegradable lubricating oil composition comprising 50% by mass or more of a synthetic ester base oil (A), 0.1 to 3% by mass of an amine-based antioxidant (B1), 0.1 to 3% by mass of a phenol-based antioxidant (B2), and 0.01 to 2% by mass of a sulfur-phosphorus-based extreme-pressure agent (C), wherein: the transmittance at 3,005 ± 1 cm -1 of a 0.1 mm-thick liquid film of the composition, as measured through IR absorptiometry, is 50% or more, wherein the synthetic ester base oil (A) comprises at least a polyol ester base oil (A1-1) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 23 to 50 in one molecule in an amount of more than 50% by mass relative to the total amount of the synthetic ester base oil (A), wherein the synthetic ester base oil (A) further comprises at least one base oil selected from a polyol ester base oil (A1-2) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 51 to 80 in one molecule and a copolymer (A3) of an unsaturated dibasic acid ester and an α-olefin in an amount of 1% by mass to less than 50% by mass relative to the total amount of the synthetic ester base oil (A), wherein the sulfur-phosphorus-based extreme-pressure agent (C) is a dithiophosphate having a terminal carboxyl group. the transmittance at 3,005 ± 1 cm -1 of a 0.1 mm-thick liquid film of the composition, as measured through IR absorptiometry, is 50% or more, wherein the synthetic ester base oil (A) comprises at least a polyol ester base oil (A1-1) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 23 to 50 in one molecule in an amount of more than 50% by mass relative to the total amount of the synthetic ester base oil (A), wherein the synthetic ester base oil (A) further comprises at least one base oil selected from a polyol ester base oil (A1-2) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 51 to 80 in one molecule and a copolymer (A3) of an unsaturated dibasic acid ester and an α-olefin in an amount of 1% by mass to less than 50% by mass relative to the total amount of the synthetic ester base oil (A), wherein the sulfur-phosphorus-based extreme-pressure agent (C) is a dithiophosphate having a terminal carboxyl group.
A composition for intra-articular injection, the composition containing a nucleic acid and chitosan, wherein the content of the nucleic acid is 0.1-3 wt% relative to a total weight of the composition, wherein the content of the chitosan is 0.001-0.1wt% relative to a total weight of the composition and wherein the weight ratio of the nucleic acid and the chitosan is 1:1 to 3000:1. wherein the content of the nucleic acid is 0.1-3 wt% relative to a total weight of the composition, wherein the content of the chitosan is 0.001-0.1wt% relative to a total weight of the composition and wherein the weight ratio of the nucleic acid and the chitosan is 1:1 to 3000:1.
A method for controlling a vehicle in which a camera configured to capture an image of a predetermined range of an angle of view in front of an own vehicle is mounted on the own vehicle and a traffic light is recognized based on an image captured by the camera , the method being characterized by the steps of: based on map information including information of an installation position of the traffic light and information of a lane controlled by the traffic light and a range of the angle of view of the camera mounted on the own vehicle , calculating (S6) an imaging-enabled area in which an image of the traffic light can be captured on the lane by the camera ; determining (S7) whether or not the own vehicle is positioned in the imaging-enabled area; and when the own vehicle is positioned in the imaging-enabled area (S7: Y), controlling (S11, S13) the own vehicle in such a way that the traffic light is not shielded from the range of the angle of view of the camera by a preceding vehicle of the own vehicle . based on map information including information of an installation position of the traffic light and information of a lane controlled by the traffic light and a range of the angle of view of the camera mounted on the own vehicle , calculating (S6) an imaging-enabled area in which an image of the traffic light can be captured on the lane by the camera ; determining (S7) whether or not the own vehicle is positioned in the imaging-enabled area; and when the own vehicle is positioned in the imaging-enabled area (S7: Y), controlling (S11, S13) the own vehicle in such a way that the traffic light is not shielded from the range of the angle of view of the camera by a preceding vehicle of the own vehicle .