mhurhangee/patent-ind-claim-en huggingface dataset:
Operating table comprising a base including a column , a tabletop supported by the column , at least one sensor configured to directly detect a change of position of the tabletop , and a controller configured to process signals of the at least one sensor in order to determine a position of the tabletop , characterized in that the operating table comprises at least one of a first inclinometer and a first acceleration sensor attached to the base , wherein the controller processes signals of the at least one of the first inclinometer and the first acceleration sensor for determining a base angle of the operating table . a base including a column , a tabletop supported by the column , at least one sensor configured to directly detect a change of position of the tabletop , and a controller configured to process signals of the at least one sensor in order to determine a position of the tabletop , characterized in that the operating table comprises at least one of a first inclinometer and a first acceleration sensor attached to the base , wherein the controller processes signals of the at least one of the first inclinometer and the first acceleration sensor for determining a base angle of the operating table .
A method of preparing a sunscreen formulation comprising: providing a sunscreen active ingredient; preparing an oleosome suspension buffered at a pH from pH 3 to pH 6; contacting the oleosome suspension with the sunscreen active ingredient at a pH of from pH 3 to pH 6 to form a sunscreen formulation. providing a sunscreen active ingredient; preparing an oleosome suspension buffered at a pH from pH 3 to pH 6; contacting the oleosome suspension with the sunscreen active ingredient at a pH of from pH 3 to pH 6 to form a sunscreen formulation.
A system for detecting an optical signal emitted from a receptacle , in the presence of multiple, different optical signals originated from the same receptacle or a different receptacle, said system comprising: an excitation device constructed and arranged to (a) generate an excitation signal having a predetermined excitation wavelength that excites an emission moiety which emits an emission signal that is associated with the excitation wavelength and having a predetermined emission wavelength, (b) set the excitation signal at a predetermined modulation frequency, and (c) direct the excitation signal at the receptacle; a signal detecting device constructed and arranged to detect an optical signal including an emission signal emitted from the receptacle and to store detection data relating to the detected signal on a computer-readable medium; a processor adapted for executing an algorithm to digitize the stored detection data; and a processor adapted for executing a Goertzel signal processing technique for determining from the digitized detection data an amplitude of the emission signal at the predetermined modulation frequency to ascertain the portion of the detected signal corresponding to the associated emission signal excited by the excitation signal. an excitation device constructed and arranged to (a) generate an excitation signal having a predetermined excitation wavelength that excites an emission moiety which emits an emission signal that is associated with the excitation wavelength and having a predetermined emission wavelength, (b) set the excitation signal at a predetermined modulation frequency, and (c) direct the excitation signal at the receptacle; a signal detecting device constructed and arranged to detect an optical signal including an emission signal emitted from the receptacle and to store detection data relating to the detected signal on a computer-readable medium; a processor adapted for executing an algorithm to digitize the stored detection data; and a processor adapted for executing a Goertzel signal processing technique for determining from the digitized detection data an amplitude of the emission signal at the predetermined modulation frequency to ascertain the portion of the detected signal corresponding to the associated emission signal excited by the excitation signal.
A display system for use in an augmented reality display, the system comprising: a waveguide comprising a plurality of faces; a first input projector arranged to project light into the waveguide through a first face; a second input projector arranged to project light into the waveguide through a second face wherein the first and second faces are substantially parallel in the waveguide; at least one input grating configured to couple light from the first and second input projectors into the waveguide; and at least one output grating configured to couple light out of the waveguide towards a viewer, wherein the first and second input projectors are arranged adjacent to one another in the direction of a width of the waveguide, wherein the respective fields of view of the first and second input projectors are arranged so that there is substantially no gap between them, along the width of the waveguide, and wherein a plurality of first input projectors and a plurality of second input projectors are provided, arranged on successively opposite sides of the waveguide across its width. a waveguide comprising a plurality of faces; a first input projector arranged to project light into the waveguide through a first face; a second input projector arranged to project light into the waveguide through a second face wherein the first and second faces are substantially parallel in the waveguide; at least one input grating configured to couple light from the first and second input projectors into the waveguide; and at least one output grating configured to couple light out of the waveguide towards a viewer, wherein the first and second input projectors are arranged adjacent to one another in the direction of a width of the waveguide, wherein the respective fields of view of the first and second input projectors are arranged so that there is substantially no gap between them, along the width of the waveguide, and wherein a plurality of first input projectors and a plurality of second input projectors are provided, arranged on successively opposite sides of the waveguide across its width.
Method for 3D reconstruction of an environment of a mobile device comprising at least one camera , characterized in that it comprises: • calculating a coarse 3D reconstruction of at least one area of said environment by a first reconstruction method, said first reconstruction method taking into account at least first pictures of said at least one area captured by said at least one camera; • determining automatically if at least one target part exists in said environment based on at least a detection of at least one object attribute, said detection taking into account at least one of said first pictures; • calculating a refined 3D reconstruction of said at least one target part by a second reconstruction method, said second reconstruction method taking into account at least second pictures of said at least one target part captured by said at least one camera; • aggregating the calculated reconstructions for providing said 3D reconstruction of said environment. • calculating a coarse 3D reconstruction of at least one area of said environment by a first reconstruction method, said first reconstruction method taking into account at least first pictures of said at least one area captured by said at least one camera; • determining automatically if at least one target part exists in said environment based on at least a detection of at least one object attribute, said detection taking into account at least one of said first pictures; • calculating a refined 3D reconstruction of said at least one target part by a second reconstruction method, said second reconstruction method taking into account at least second pictures of said at least one target part captured by said at least one camera; • aggregating the calculated reconstructions for providing said 3D reconstruction of said environment.
A thermoplastic composite comprising fluoropolymer filaments and carbon fibre filaments, wherein the fluoropolymer filaments and carbon fibre filaments are commingled to form an intimate mixture, and wherein the fluoropolymer has a melt flow index (230∘C/2.16kg) in the range of 50 to 80 g/10min measured using ASTM D1238, ISO 1133; wherein the fluoropolymer preferably has a melt flow index (230°C/2.16kg) in the range of 60 to 70 g/10min.
A method comprising: depositing a first metal layer over a germanium oxide, GeO x , layer , the GeO x layer formed at a top surface of a germanium substrate ; depositing a first metal oxide layer over the first metal layer , the first metal oxide layer comprising a same metal material as the first metal layer ; and during a first anneal process, combining the first metal layer with the germanium oxide layer and the first metal oxide layer to form a dielectric layer . depositing a first metal layer over a germanium oxide, GeO x , layer , the GeO x layer formed at a top surface of a germanium substrate ; depositing a first metal oxide layer over the first metal layer , the first metal oxide layer comprising a same metal material as the first metal layer ; and during a first anneal process, combining the first metal layer with the germanium oxide layer and the first metal oxide layer to form a dielectric layer .
A method for producing ultrafine fibers, the method comprising: forming an electric field between an discharging nozzle from which a raw resin is discharged and a charging electrode which is disposed apart from the discharging nozzle, and supplying the raw resin which has been heated and melted into the electric field from the discharging nozzle to spin the raw resin, wherein the raw resin is a resin mixture which contains a resin having a melting point and an additive, and satisfies a relation (I) below: A / B ≥ 1.0 × 10 2 wherein A represents an absolute value (Ω) of electrical impedance of the raw resin at 50°C, and B represents an absolute value (S2) of electrical impedance of the raw resin at a temperature 50°C higher than a melting point of the raw resin, wherein electrical impedance is measured using a method in which the applied voltage is set to be AC 0.1V for measurement in the molten state, and is set to be AC 1V for measurement at 50°C, that is, in the solid state, and the applied frequency is set at 0.1 Hz; wherein the measurement is performed in an environment at 23°C and 40% RH. forming an electric field between an discharging nozzle from which a raw resin is discharged and a charging electrode which is disposed apart from the discharging nozzle, and supplying the raw resin which has been heated and melted into the electric field from the discharging nozzle to spin the raw resin, wherein the raw resin is a resin mixture which contains a resin having a melting point and an additive, and satisfies a relation (I) below: A / B ≥ 1.0 × 10 2 wherein A represents an absolute value (Ω) of electrical impedance of the raw resin at 50°C, and B represents an absolute value (S2) of electrical impedance of the raw resin at a temperature 50°C higher than a melting point of the raw resin, wherein electrical impedance is measured using a method in which the applied voltage is set to be AC 0.1V for measurement in the molten state, and is set to be AC 1V for measurement at 50°C, that is, in the solid state, and the applied frequency is set at 0.1 Hz; wherein the measurement is performed in an environment at 23°C and 40% RH.
An actuator device for a blast simulator, comprising a first actuator including a linearly movable piston , an impact mass adapted to be accelerated via the piston in a direction away from the first actuator , wherein a biasing force can be applied to the piston in the direction of acceleration of the impact mass via a biasing means , and wherein a second actuator is provided by which the piston is displaceable opposite to the biasing force so as to tension the biasing means , with the second actuator and the piston being connected via a mechanical connecting element which is arranged for releasing the connection between the second actuator and the piston in a controlled manner, characterised in that : the impact mass is connected to the first actuator such that it can detach from the first actuator in the direction of acceleration, wherein after a defined displacement path, the velocity of the piston is decelerated, with the impact mass then detaching from the piston . the impact mass is connected to the first actuator such that it can detach from the first actuator in the direction of acceleration, wherein after a defined displacement path, the velocity of the piston is decelerated, with the impact mass then detaching from the piston .
-14-Methyl-20-oxa-5,7,14,26-tetraazatetracyclo[19.3.1.1 .l ]-heptacosa-l ,2 ,3,5,8 ,9,l1,16,21,23-decaene (TG02), or a pharmaceutically acceptable salt thereof, for use in treating diffuse intrinsic pontine glioma (DIPG) in a pediatric human subject, wherein the TG02 is administered in combination with radiation therapy and the DIPG is a H3K27M-mutant DIPG.
Device for generative manufacture of a three-dimensional object , comprising a process chamber ; an energy beam generation means which is configured for generating an energy beam for selective successive consolidation of build material layers, a flow means which is configured for generating a fluid flow flowing through a process chamber of the device at least in sections; a detection means for detecting an item of flow information describing at least one physical parameter and/or at least one chemical parameter of the fluid flow ; a diffuser element for generating a uniform or homogenized, in particular laminar, flow profile of the fluid flow ; and a regulation and/or control means which is configured to regulate or control a movement of the diffuser element in at least one degree of freedom of movement or to regulate or control the operation of the flow means and to regulate or control a movement of the diffuser element in at least one degree of freedom of movement depending on the item of flow information detected by the detection means . a process chamber ; an energy beam generation means which is configured for generating an energy beam for selective successive consolidation of build material layers, a flow means which is configured for generating a fluid flow flowing through a process chamber of the device at least in sections; a detection means for detecting an item of flow information describing at least one physical parameter and/or at least one chemical parameter of the fluid flow ; a diffuser element for generating a uniform or homogenized, in particular laminar, flow profile of the fluid flow ; and a regulation and/or control means which is configured to regulate or control a movement of the diffuser element in at least one degree of freedom of movement or to regulate or control the operation of the flow means and to regulate or control a movement of the diffuser element in at least one degree of freedom of movement depending on the item of flow information detected by the detection means .
An electrical connection comprising: a first connector ; a second connector , configured to form a connection with the first connector ; a first wall surrounding the first connector ; a second wall surrounding the second connector , wherein the first wall is configured to fit inside the second wall when the first and second connectors are connected; a first flange , from which the first wall protrudes axially, parallel to a connection axis (C-C); and a seal disposed around the first wall , wherein the first and second connectors further comprise one or more fastening members configured to secure the connection between the first and second connectors ; characterised in that the first and second walls include leading faces comprising first and second chamfered portions , respectively, wherein the first and second chamfered portions are angled complementarily; and in that the seal is configured to be compressed against the first wall , the first flange , and the second chamfered portion when the connection between the first and second connectors is secured by the one or more fastening members . a first connector ; a second connector , configured to form a connection with the first connector ; a first wall surrounding the first connector ; a second wall surrounding the second connector , wherein the first wall is configured to fit inside the second wall when the first and second connectors are connected; a first flange , from which the first wall protrudes axially, parallel to a connection axis (C-C); and a seal disposed around the first wall , wherein the first and second connectors further comprise one or more fastening members configured to secure the connection between the first and second connectors ; characterised in that the first and second walls include leading faces comprising first and second chamfered portions , respectively, wherein the first and second chamfered portions are angled complementarily; and in that the seal is configured to be compressed against the first wall , the first flange , and the second chamfered portion when the connection between the first and second connectors is secured by the one or more fastening members .
A load-receiving member of a vehicle for directly receiving a collision load, comprising a frame member of the vehicle and a shock-absorbing mechanism disposed between the load-receiving member and the frame member in order to reduce the collision load applied to the frame member , which shock-absorbing mechanism includes a cylindrical member that is configured to axially receive the collision load applied thereto via the load-receiving member so as to be axially compressed, and a load absorbing member that is received in the cylindrical member so as to be axially compressed with the cylindrical member when the collision load is applied thereto and that is capable of expanding from its compressed condition by a certain amount in a restoring direction when the collision load is released, wherein at least one of a pressing portion of the load-receiving member and a pressing portion of the frame member for axially pressing the load absorbing member when the collision load is applied thereto has a space which a portion of the compressed load absorbing member enters, and characterized in that the load absorbing member comprises a wood member that is received in the cylindrical member while an axis direction of annular rings of the wood member corresponds to an axial direction of the cylindrical member . wherein at least one of a pressing portion of the load-receiving member and a pressing portion of the frame member for axially pressing the load absorbing member when the collision load is applied thereto has a space which a portion of the compressed load absorbing member enters, and characterized in that the load absorbing member comprises a wood member that is received in the cylindrical member while an axis direction of annular rings of the wood member corresponds to an axial direction of the cylindrical member .
A computer-implemented nucleic acid amplification and detection method, including: receiving signal data representing assay measurements of a sample containing at least one nucleic acid at respective times during amplification of the at least one nucleic acid; processing said signal data to generate second derivative data representing values of a second derivative of said signal data with respect to time; processing said second derivative data to determine whether at least one of the second derivative values exceeds a predetermined second derivative threshold value; processing said second derivative data to determine a crossover time at which the second derivative of said signal data crosses zero after having exceeded the second derivative threshold value; processing said signal data to generate first derivative data representing a first derivative of said signal data with respect to time at the crossover time; generating assay result data representing a result of the assay, the result being determined on the basis of: (i) whether the predetermined second derivative threshold value was exceeded, and (ii) the first derivative of said signal with respect to time at the crossover time; and outputting the assay result data. receiving signal data representing assay measurements of a sample containing at least one nucleic acid at respective times during amplification of the at least one nucleic acid; processing said signal data to generate second derivative data representing values of a second derivative of said signal data with respect to time; processing said second derivative data to determine whether at least one of the second derivative values exceeds a predetermined second derivative threshold value; processing said second derivative data to determine a crossover time at which the second derivative of said signal data crosses zero after having exceeded the second derivative threshold value; processing said signal data to generate first derivative data representing a first derivative of said signal data with respect to time at the crossover time; generating assay result data representing a result of the assay, the result being determined on the basis of: (i) whether the predetermined second derivative threshold value was exceeded, and (ii) the first derivative of said signal with respect to time at the crossover time; and outputting the assay result data. processing said signal data to generate first derivative data representing a first derivative of said signal data with respect to time at the crossover time; generating assay result data representing a result of the assay, the result being determined on the basis of: (i) whether the predetermined second derivative threshold value was exceeded, and (ii) the first derivative of said signal with respect to time at the crossover time; and outputting the assay result data.