mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor structure , comprising: a silicon substrate ; a seed layer over an upper surface of the substrate ; a semiconductor layer disposed over an upper surface of the seed layer ; a transistor device in the semiconductor layer ; an opto-electric structure comprising a III-V structure disposed on a bottom surface of the seed layer , wherein the opto-electric structure comprises a photon detecting structure or a photon emitting structure ; wherein the transistor device is disposed in an upper surface portion of a first region of the semiconductor layer and wherein the semiconductor layer has an aperture in a second, laterally spaced region of the semiconductor layer , such aperture in the semiconductor layer extending from the upper surface portion of the semiconductor layer and terminating on the seed layer over the opto-electric structure ; wherein light detected by the photon detecting structure , or light emitted by the photon emitting structure , passes through the aperture in the semiconductor layer ; and further comprising: electrical contacts to the transistor, such contacts being disposed over an upper surface portion of the semiconductor layer and an opto-electric electrical contact to the opto-electric structure , such opto-electric electrical contact forming an annular electrode extending from over the upper surface portion of the semiconductor layer to the seed layer . a silicon substrate ; a seed layer over an upper surface of the substrate ; a semiconductor layer disposed over an upper surface of the seed layer ; a transistor device in the semiconductor layer ; an opto-electric structure comprising a III-V structure disposed on a bottom surface of the seed layer , wherein the opto-electric structure comprises a photon detecting structure or a photon emitting structure ; wherein the transistor device is disposed in an upper surface portion of a first region of the semiconductor layer and wherein the semiconductor layer has an aperture in a second, laterally spaced region of the semiconductor layer , such aperture in the semiconductor layer extending from the upper surface portion of the semiconductor layer and terminating on the seed layer over the opto-electric structure ; wherein light detected by the photon detecting structure , or light emitted by the photon emitting structure , passes through the aperture in the semiconductor layer ; and further comprising: electrical contacts to the transistor, such contacts being disposed over an upper surface portion of the semiconductor layer and an opto-electric electrical contact to the opto-electric structure , such opto-electric electrical contact forming an annular electrode extending from over the upper surface portion of the semiconductor layer to the seed layer .
A platform for connecting at least one fiber optic cable assembly to a fiber optic equipment , the platform comprising: a coupling surface comprising at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d), wherein the at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d) is configured to couple the at least one fiber optic cable assembly to the coupling surface , wherein the at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d) comprises a first opening and a second opening, characterized in that the platform comprises a plurality of plate engagement features configured to be removably coupled to a plurality of equipment engagement features positioned on the fiber optic equipment ; and the first opening is configured to receive a first engagement tab of a clip coupled to at least one fiber optic cable assembly , and the second opening is configured to receive a second engagement tab of the clip . a coupling surface comprising at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d), wherein the at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d) is configured to couple the at least one fiber optic cable assembly to the coupling surface , wherein the at least one cable engagement feature (220a, 220b, 222a, 222b, 320a, 320b, 322a, 322b, 420a - 420d) comprises a first opening and a second opening, characterized in that the platform comprises a plurality of plate engagement features configured to be removably coupled to a plurality of equipment engagement features positioned on the fiber optic equipment ; and the first opening is configured to receive a first engagement tab of a clip coupled to at least one fiber optic cable assembly , and the second opening is configured to receive a second engagement tab of the clip .
A method for use by a ray tracing and shading system including a processor and a memory , the method comprising: tracing a plurality of rays, using the processor, in a scene having an element, wherein the tracing determines a plurality of intersection points of the plurality of rays with the element in the scene, wherein each of the plurality of intersection points corresponds to one of the plurality of rays; recording, using the processor , the plurality of intersection points of the traced rays in the memory ; reordering, using the processor and after the tracing and the recording, the plurality of rays in the memory , wherein the reordering includes grouping the plurality of intersection points of the traced rays according to a plurality of shading contexts each corresponding to one of a plurality of groups, prior to coherent shading of the intersection points, wherein each of the plurality of shading contexts corresponds to one aspect or feature of the element in the scene, and wherein the aspect or the feature includes one of texture and material; and shading, after the reordering, the plurality of intersection points in each of the plurality of groups according to the corresponding one of the plurality of shading contexts, wherein the shading for at least two of the plurality of groups is performed in parallel. tracing a plurality of rays, using the processor, in a scene having an element, wherein the tracing determines a plurality of intersection points of the plurality of rays with the element in the scene, wherein each of the plurality of intersection points corresponds to one of the plurality of rays; recording, using the processor , the plurality of intersection points of the traced rays in the memory ; reordering, using the processor and after the tracing and the recording, the plurality of rays in the memory , wherein the reordering includes grouping the plurality of intersection points of the traced rays according to a plurality of shading contexts each corresponding to one of a plurality of groups, prior to coherent shading of the intersection points, wherein each of the plurality of shading contexts corresponds to one aspect or feature of the element in the scene, and wherein the aspect or the feature includes one of texture and material; and shading, after the reordering, the plurality of intersection points in each of the plurality of groups according to the corresponding one of the plurality of shading contexts, wherein the shading for at least two of the plurality of groups is performed in parallel.
Method for assessing the evolution of the tread depth of a tread of a vehicle tyre containing an acceleration sensor over time, the acceleration sensor being arranged inside the vehicle tyre or on the inside of the tyre in the region of the tread, wherein an assessment operation involves the acceleration experienced by the acceleration sensor during operation of the vehicle tyre being measured in the radial direction during a time interval, wherein the acceleration sensor is moved through the tyre contact zone and the adjacent deformation regions in the time interval, characterized in that the profile of the measured acceleration in the time interval is taken as a basis for determining a first time A, at which the acceleration falls below a first limit value G1, wherein a second time B, which follows A, at which the acceleration falls below a second limit value G2, is determined, wherein a third time C, which follows B, at which the acceleration rises above the second limit value G2, is determined, wherein a fourth time D, which follows C, at which the acceleration rises above the first limit value G1, is determined, the first limit value G1 and the second limit value G2 being set on the basis of the profile of the acceleration in the time interval, wherein a first time difference U between the times A and D and a second time difference V between the times B and C are determined, an assessment quotient Z being determined as the ratio of U and V, wherein the evolution of the tread depth over time is assessed by comparing the assessment quotients Z that have been determined for two or more different assessment operations. wherein an assessment operation involves the acceleration experienced by the acceleration sensor during operation of the vehicle tyre being measured in the radial direction during a time interval, wherein the acceleration sensor is moved through the tyre contact zone and the adjacent deformation regions in the time interval, characterized in that the profile of the measured acceleration in the time interval is taken as a basis for determining a first time A, at which the acceleration falls below a first limit value G1, wherein a second time B, which follows A, at which the acceleration falls below a second limit value G2, is determined, wherein a third time C, which follows B, at which the acceleration rises above the second limit value G2, is determined, wherein a fourth time D, which follows C, at which the acceleration rises above the first limit value G1, is determined, the first limit value G1 and the second limit value G2 being set on the basis of the profile of the acceleration in the time interval, wherein a first time difference U between the times A and D and a second time difference V between the times B and C are determined, an assessment quotient Z being determined as the ratio of U and V, wherein the evolution of the tread depth over time is assessed by comparing the assessment quotients Z that have been determined for two or more different assessment operations.
A nanostructure conjugate comprising at least one nanostructure and at least one modulator compound for targeting and modulation of a NMDA receptor at an extrasynaptic location; wherein the modulator compound is an NMDAR modulator; wherein the nanostructure conjugate has an average hydrodynamic diameter of 20 - 75 nm; and wherein the nanostructure is linked to the NMDAR modulator through a linker.
A method comprising: receiving a message at a base station of a first cell from a management server comprising state information for the first cell and state information for any neighbouring cells of the first cell, wherein the state information comprises at least one of the following states: Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; using the state information at the base station of the first cell to determine a neighbouring relationship between the first cell and any neighbouring cells, wherein based on the different cell states, the cell can have different neighbours; activating at the base station of the first cell at least one performance management counter based on the combination of states of the determined current cell and the neighbouring cell(s) ; collecting at the base station of the first cell the at least one performance management counter associated with the state of the first cell and at least one state of the any neighbouring cell(s) ; and reporting by the base station of the first cell at the end of at least one measurement collection period the defined at least one performance management counter to the management server . receiving a message at a base station of a first cell from a management server comprising state information for the first cell and state information for any neighbouring cells of the first cell, wherein the state information comprises at least one of the following states: Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; Normal; Energy saving ES compensating; Active Antenna System AAS reshape; AAS split; AAS merge; using the state information at the base station of the first cell to determine a neighbouring relationship between the first cell and any neighbouring cells, wherein based on the different cell states, the cell can have different neighbours; activating at the base station of the first cell at least one performance management counter based on the combination of states of the determined current cell and the neighbouring cell(s) ; collecting at the base station of the first cell the at least one performance management counter associated with the state of the first cell and at least one state of the any neighbouring cell(s) ; and reporting by the base station of the first cell at the end of at least one measurement collection period the defined at least one performance management counter to the management server .
Cable grommet separating and conveying device for separating and conveying cable grommets to a mounting tool for mounting the separated cable grommets on the cable, comprising a bulk container for accommodating a plurality of loose cable grommets and a conveying device for conveying the loose cable grommets located in the bulk container to a separating and transport device , characterized in that a cross-sectional constriction is provided in the transition area from the bulk container to the conveying device , and that the bulk container is designed as a separate component which can be coupled to at least the conveying device .
A composition comprising a selective herbicide and an algal extract and manganese and/or a silicate, wherein the selective herbicide is selected from glyphosate, dimethenamid-p,and imazaquin, the algal extract originates from fucale or laminariale brown algae, the silicate is chosen from aluminium silicate, potassium silicate or magnesium silicate, and the manganese is chosen from a manganese salt or a chelated manganese.
A bioprosthetic heart valve assembly having a geometric configuration for implantation in an annulus of the native heart valve comprising: a. a tubular structure having an entry opening end and an exit opening at opposite ends thereof, wherein the tubular structure is comprised of an expandable stent structure comprised of a plurality of interconnected elements having a compressed configuration and an expanded configuration and wherein a plurality of the elements are comprised of winglets that extend away from the external circumferential surface of the stent in the expanded configuration, b. a biocompatible material affixed to an inner annular region between the entry opening and the exit opening, and c. a valve comprised of a plurality of leaflets capable of forming a fluid tight seal at the opposing edges thereof wherein the circumference of the plurality of leaflets together form a fluid tight seal about an interior of the valve assembly between the entry opening and the exit opening, characterized in that the tubular structure has a tapered diameter along its whole length, such that the entry opening has a smaller diameter than the exit opening . a. a tubular structure having an entry opening end and an exit opening at opposite ends thereof, wherein the tubular structure is comprised of an expandable stent structure comprised of a plurality of interconnected elements having a compressed configuration and an expanded configuration and wherein a plurality of the elements are comprised of winglets that extend away from the external circumferential surface of the stent in the expanded configuration, b. a biocompatible material affixed to an inner annular region between the entry opening and the exit opening, and c. a valve comprised of a plurality of leaflets capable of forming a fluid tight seal at the opposing edges thereof wherein the circumference of the plurality of leaflets together form a fluid tight seal about an interior of the valve assembly between the entry opening and the exit opening,
Method for measuring physical parameters in a trampoline competition, with a measuring system that includes several sensor assemblies arranged in different positions on a trampoline , the sensor assemblies being independent of one another, for communication of data signals to a base station of the measuring system , each sensor assembly comprising a motion sensor , a processing unit and means for transmitting and receiving data or control signals, the data signals containing the measurements made by the motion sensor, characterized in that the method includes the steps of: - for a competition mode, activating each sensor assembly , - measuring any motion or variations in motion over time via the motion sensor of each sensor assembly following jumps performed by a competitor on a bed of the trampoline , - processing one or more measurement signals from the motion sensor in the processing unit , which is a microcontroller, of each sensor assembly , a time base of each microcontroller of the sensor assemblies being adapted as a result of a synchronization transmitted by a computer of the base station in communication with each sensor assembly , - transmitting measurement signals clearly defined in time from each sensor assembly to the base station of the measuring system , - automatically determining in the base station following the various measurements received over time from each sensor assembly , a time of flight for each of the competitor's jumps, and a position of contact of the competitor on the bed in order to award points to the competitor for the execution of a number of specific jumps during the competition. - for a competition mode, activating each sensor assembly , - measuring any motion or variations in motion over time via the motion sensor of each sensor assembly following jumps performed by a competitor on a bed of the trampoline , - processing one or more measurement signals from the motion sensor in the processing unit , which is a microcontroller, of each sensor assembly , a time base of each microcontroller of the sensor assemblies being adapted as a result of a synchronization transmitted by a computer of the base station in communication with each sensor assembly , - transmitting measurement signals clearly defined in time from each sensor assembly to the base station of the measuring system , - automatically determining in the base station following the various measurements received over time from each sensor assembly , a time of flight for each of the competitor's jumps, and a position of contact of the competitor on the bed in order to award points to the competitor for the execution of a number of specific jumps during the competition.
An inductive power transfer apparatus comprising: an elongate primary conductive loop configured to provide a magnetic field for inductive power transfer, and a circuit for energising a magnetic flux coupling apparatus , the circuit comprising: a pick-up coil for receiving power inductively from the primary conductive loop, an inverter for supplying electrical energy from the storage capacitor to the magnetic flux coupling apparatus , a storage capacitor for storing energy from the inductively received power, characterized in that the storage capacitor being sufficiently large to supply transient load demands greater than the input power available from the primary conductive loop , and wherein power transfer to a load to be supplied by the magnetic flux coupling apparatus exceeds the inductively received power by means of the energy stored in the storage capacitor . an elongate primary conductive loop configured to provide a magnetic field for inductive power transfer, and a circuit for energising a magnetic flux coupling apparatus , the circuit comprising: a pick-up coil for receiving power inductively from the primary conductive loop, an inverter for supplying electrical energy from the storage capacitor to the magnetic flux coupling apparatus , a storage capacitor for storing energy from the inductively received power, characterized in that the storage capacitor being sufficiently large to supply transient load demands greater than the input power available from the primary conductive loop , and wherein power transfer to a load to be supplied by the magnetic flux coupling apparatus exceeds the inductively received power by means of the energy stored in the storage capacitor . a pick-up coil for receiving power inductively from the primary conductive loop, an inverter for supplying electrical energy from the storage capacitor to the magnetic flux coupling apparatus , a storage capacitor for storing energy from the inductively received power, characterized in that the storage capacitor being sufficiently large to supply transient load demands greater than the input power available from the primary conductive loop , and wherein power transfer to a load to be supplied by the magnetic flux coupling apparatus exceeds the inductively received power by means of the energy stored in the storage capacitor .
A method of (a) arresting cell growth in a mammalian cell culture expressing a recombinant protein, (b) increasing recombinant protein production in a mammalian cell culture expressing a recombinant protein, wherein recombinant protein production in the mammalian cell culture is increased compared to a culture where the cells are not subjected to L-asparagine-induced cell growth-arrest, and/or (c) limiting a mammalian cell culture expressing a recombinant protein at a desired packed cell volume, comprising establishing a mammalian cell culture in a serum-free culture medium in a bioreactor; inducing cell growth-arrest by L-asparagine starvation; maintaining the mammalian cells in a growth-arrested state by perfusion with a serum-free perfusion medium having an L-asparagine concentration of 5mM or less. (a) arresting cell growth in a mammalian cell culture expressing a recombinant protein, (b) increasing recombinant protein production in a mammalian cell culture expressing a recombinant protein, wherein recombinant protein production in the mammalian cell culture is increased compared to a culture where the cells are not subjected to L-asparagine-induced cell growth-arrest, and/or (c) limiting a mammalian cell culture expressing a recombinant protein at a desired packed cell volume, comprising
An adjustable air vent which is adapted to guide an air stream flowing through said air vent , said air vent comprising - an elongate housing extending in a length direction (L), - one or more vertical vanes , at least partly located in said housing , - one or more horizontal vanes , at least partly located in said housing , - an air guide , at least partly located within said housing , fixedly positioned in relation to said housing and extending in said length direction (L), and - an air adjustment actuator being displaceable in relation to said housing to adjust a direction of said air stream, said air vent further comprising a first connection directly or indirectly connecting said air adjustment actuator to said one or more horizontal vanes for vertically directing said air stream, said air vent further comprising a second connection directly or indirectly connecting said air adjustment actuator to said one or more vertical vanes for horizontally directing said air stream, said air adjustment actuator is displaceable relative to said air guide , preferably rotationally displaceable, characterized in that said air adjustment actuator surrounds said air guide . - an elongate housing extending in a length direction (L), - one or more vertical vanes , at least partly located in said housing , - one or more horizontal vanes , at least partly located in said housing , - an air guide , at least partly located within said housing , fixedly positioned in relation to said housing and extending in said length direction (L), and - an air adjustment actuator being displaceable in relation to said housing to adjust a direction of said air stream,