mhurhangee/patent-ind-claim-en huggingface dataset:
Electric radiator comprising a front facade and a rear facade attached to a structure , said facades and said structure delimiting an internal cavity in which there is installed a heating core suitable for heating said facades , said core having a front face and a rear face , which faces are delimited by longitudinal edges and lateral edges , the heating core is associated with a support , said attachment support consisting of the structure associated with a frame into which the heating core is inserted, which frame encases the longitudinal edges of said core , said frame consisting of an assembly of profiles comprising elements for holding the heating core in position, characterized in that the frame also encases the lateral edges of the heating core , and in that the elements of the profiles for holding the heating core in position are flexible clamping elements with elastic properties that are suitable for holding the heating core in position.
Device for holographic and hyperspectral measuring and analyzing of a sample , said device comprising: - an acquisition device of an image containing spectral and amplitude information of the light signal illuminating said sample ; and holographic interference figures of a reference light beam (R) and of a light beam (O) having illuminated said sample containing the amplitude and phase information of the light signal illuminating said sample; and - an illumination device of said sample ; and - a device for reconstructing the hyperspectral holographic image and analyzing the amplitude, phase and spectrum properties of the light illuminating (O) said sample integrating a deep and convolutional neural network architectured for calculating a probability of presence of the particularity (-ies) sought in said sample from the hyperspectral holographic image, and generating an image for each sought particularity whose value of each pixel at the x and y coordinates corresponds to the probability presence of said particularity at the same x and y coordinates of said sample . - an acquisition device of an image containing spectral and amplitude information of the light signal illuminating said sample ; and holographic interference figures of a reference light beam (R) and of a light beam (O) having illuminated said sample containing the amplitude and phase information of the light signal illuminating said sample; and - an illumination device of said sample ; and - a device for reconstructing the hyperspectral holographic image and analyzing the amplitude, phase and spectrum properties of the light illuminating (O) said sample integrating a deep and convolutional neural network architectured for calculating a probability of presence of the particularity (-ies) sought in said sample from the hyperspectral holographic image, and generating an image for each sought particularity whose value of each pixel at the x and y coordinates corresponds to the probability presence of said particularity at the same x and y coordinates of said sample .
A peritoneal dialysis ("PD") system comprising: a cycler including an actuation surface having a peristaltic pump actuator , and at least one pair of capacitive sensing plates ; a manifold assembly including a rigid manifold having first and second chambers , the rigid manifold configured and arranged to be abutted against the actuation surface for operation, wherein the at least one pair of capacitive sensing plates is positioned to be operable with at least one of the first chamber or the second chamber, and a peristaltic pump tube extending from the first chamber to the second chamber of the rigid manifold; and a control unit configured to (i) cause the peristaltic pump actuator to actuate the peristaltic pump tube to pump an amount of dialysis fluid from the second chamber to the first chamber, (ii) receive a signal from each of the at least one pair of capacitive sensing plates, the at least one signal indicative of the amount of dialysis fluid pumped, (iii) count a number of revolutions of the peristaltic pump actuator needed to pump the amount of dialysis fluid from the second chamber to the first chamber, (iv) determine a current volume per revolution for the peristaltic pump actuator, and (v) use the current volume per revolution for at least one subsequent operation of the peristaltic pump actuator. a cycler including an actuation surface having a peristaltic pump actuator , and at least one pair of capacitive sensing plates ; an actuation surface having a peristaltic pump actuator , and at least one pair of capacitive sensing plates ; a manifold assembly including a rigid manifold having first and second chambers , the rigid manifold configured and arranged to be abutted against the actuation surface for operation, wherein the at least one pair of capacitive sensing plates is positioned to be operable with at least one of the first chamber or the second chamber, and a peristaltic pump tube extending from the first chamber to the second chamber of the rigid manifold; and a rigid manifold having first and second chambers , the rigid manifold configured and arranged to be abutted against the actuation surface for operation, wherein the at least one pair of capacitive sensing plates is positioned to be operable with at least one of the first chamber or the second chamber, and a peristaltic pump tube extending from the first chamber to the second chamber of the rigid manifold; and a control unit configured to (i) cause the peristaltic pump actuator to actuate the peristaltic pump tube to pump an amount of dialysis fluid from the second chamber to the first chamber, (ii) receive a signal from each of the at least one pair of capacitive sensing plates, the at least one signal indicative of the amount of dialysis fluid pumped, (iii) count a number of revolutions of the peristaltic pump actuator needed to pump the amount of dialysis fluid from the second chamber to the first chamber, (iv) determine a current volume per revolution for the peristaltic pump actuator, and (v) use the current volume per revolution for at least one subsequent operation of the peristaltic pump actuator.
A control system for a forced-induction engine having a low pressure exhaust gas recirculation (LPEGR) system configured to recirculate exhaust gas produced by the engine to an induction system of the engine via an EGR port, the control system comprising: a differential pressure (dP) valve disposed in the induction system of the engine upstream from the EGR port, wherein the EGR port is disposed upstream from an inlet of a boost device of the engine ; a throttle valve disposed downstream from the boost device ; and a controller configured to: determine a desired dP based on an engine mass air flow (MAF) and a speed of the engine ; determine a desired EGR mass fraction based on at least the engine MAF and the engine speed; determine a maximum throttle inlet pressure (TIP) based on the engine speed, the desired EGR mass fraction, and a barometric pressure; and perform coordinated control of the dP valve and the throttle valve based on the desired dP and the maximum TIP, respectively, thereby extending EGR operability to additional engine speed/load regions and increasing engine efficiency. a differential pressure (dP) valve disposed in the induction system of the engine upstream from the EGR port, wherein the EGR port is disposed upstream from an inlet of a boost device of the engine ; a throttle valve disposed downstream from the boost device ; and a controller configured to: determine a desired dP based on an engine mass air flow (MAF) and a speed of the engine ; determine a desired EGR mass fraction based on at least the engine MAF and the engine speed; determine a maximum throttle inlet pressure (TIP) based on the engine speed, the desired EGR mass fraction, and a barometric pressure; and perform coordinated control of the dP valve and the throttle valve based on the desired dP and the maximum TIP, respectively, thereby extending EGR operability to additional engine speed/load regions and increasing engine efficiency. determine a desired dP based on an engine mass air flow (MAF) and a speed of the engine ; determine a desired EGR mass fraction based on at least the engine MAF and the engine speed; determine a maximum throttle inlet pressure (TIP) based on the engine speed, the desired EGR mass fraction, and a barometric pressure; and perform coordinated control of the dP valve and the throttle valve based on the desired dP and the maximum TIP, respectively, thereby extending EGR operability to additional engine speed/load regions and increasing engine efficiency.
Z-rotary wafer positioning stage comprising a stationary unit , a Z-unit actuable upwardly and downwardly relative to the stationary unit , a rotary unit with a wafer chuck rotatably mounted in the Z-unit , a rotary motor arranged to rotate the rotary unit relative to the Z-unit , and a lift-pin mechanism comprising lift-pins aligned with through-holes extending through the wafer chuck , the lift-pin mechanism being configured to be toggled between a first position, whereby distal ends of the lift-pins are below or at the level of the wafer chuck surface and a second position, whereby the distal ends of the lift-pins extend above the wafer chuck surface, characterized in that the Z-rotary wafer positioning stage further comprises at least one upper magnet to hold the lift-pin mechanism in said first position, at least one lower magnet to hold the lift-pin mechanism in said second position, and at least one electromagnet configured to be energized to toggle the lift-pin mechanism from the second to the first position and optionally from the first to the second position.
In vitro method for testing the potential sensitivity of tumor cells towards a chemotherapeutic agent that can be metabolized by enzymes of the CYP family, characterized by the steps of (a) measuring expression of cytochrome P450 3A5 (CYP3A5) in said tumor cells; and (b) determining the metabolic status of said tumor cells as either CYP3A5-positive or CYP3A5-negative; wherein a CYP3A5-positive metabolic status of said tumor cells is indicative of a potential sensitivity of said tumor cells towards said chemotherapeutic agent. (a) measuring expression of cytochrome P450 3A5 (CYP3A5) in said tumor cells; and (b) determining the metabolic status of said tumor cells as either CYP3A5-positive or CYP3A5-negative;
Method for designing a device for multi-plane conversion of first light radiation, the device implementing a plurality of phase masks which intercept the light radiation in order to apply to this light radiation a space-frequency phase shift leading to a predetermined transformation of the first light radiation into second light radiation, the design method comprising the following steps: - defining a first mode family (u) which describes the first light radiation, each mode (u ij ) of the first family being designated by a pair of indexes {i, j} l<=i<=n, l<=j<=m, the first family (u ij (x, y)) having separable spatial variables (x, y); - defining a second mode family (v) which describes the second light radiation, and each mode of the second family (v ij ) being designated by a pair of indexes {i,j}, l<=i<=n, l<=j<=m, the second family (v ij (x, y)) having separable spatial variables (x, y); - forming a first and a second used mode family, respectively, by selecting N modes of index pairs {i, j} k l<=k<=N, N being less than or equal to n.m and strictly greater than n and than m in the first family and in the second family, respectively, the N modes of the second family not being Hermite-Gaussian modes and, simultaneously, the N modes of the first family not being arranged in a plane in the shape of a triangle; - establishing the space-frequency phase shift of the phase masks that allows each mode of index pairs {i,j} k from the first used mode family to be transformed into the mode of the same index pair {i,j} k from the second used mode family. - defining a first mode family (u) which describes the first light radiation, each mode (u ij ) of the first family being designated by a pair of indexes {i, j} l<=i<=n, l<=j<=m, the first family (u ij (x, y)) having separable spatial variables (x, y); - defining a second mode family (v) which describes the second light radiation, and each mode of the second family (v ij ) being designated by a pair of indexes {i,j}, l<=i<=n, l<=j<=m, the second family (v ij (x, y)) having separable spatial variables (x, y); - forming a first and a second used mode family, respectively, by selecting N modes of index pairs {i, j} k l<=k<=N, N being less than or equal to n.m and strictly greater than n and than m in the first family and in the second family, respectively, the N modes of the second family not being Hermite-Gaussian modes and, simultaneously, the N modes of the first family not being arranged in a plane in the shape of a triangle; - establishing the space-frequency phase shift of the phase masks that allows each mode of index pairs {i,j} k from the first used mode family to be transformed into the mode of the same index pair {i,j} k from the second used mode family.
An aircraft control system, comprising: a camera , a remote control apparatus with a first control rod (no) configured to move in a first movement direction to control a motion of an aircraft in a first motion direction when an external force is applied on the first control rod in the first movement direction , wherein the first motion direction is a vertical climb or descend direction, wherein the aircraft carries in use, the camera for imaging of a target on the ground, and wherein the camera has a lens focal length zooming out/in function; wherein the remote control apparatus operates to generate one or more control signals when the first control rod automatically returns to a preset position along the first movement direction after a withdrawal of the external force applied to the first control rod in the first movement direction ; and a flight controller associated, in use, with the aircraft , wherein the flight controller is configured to control a coupling of a motion of the aircraft in the first motion direction and the camera's focal length zooming out/in to maintain a size of an image of the target after receiving said one or more control signals indicating that the first control rod automatically returns to the preset position along the first movement direction . a camera , a remote control apparatus with a first control rod (no) configured to move in a first movement direction to control a motion of an aircraft in a first motion direction when an external force is applied on the first control rod in the first movement direction , wherein the first motion direction is a vertical climb or descend direction, wherein the aircraft carries in use, the camera for imaging of a target on the ground, and wherein the camera has a lens focal length zooming out/in function; wherein the remote control apparatus operates to generate one or more control signals when the first control rod automatically returns to a preset position along the first movement direction after a withdrawal of the external force applied to the first control rod in the first movement direction ; and a flight controller associated, in use, with the aircraft , wherein the flight controller is configured to control a coupling of a motion of the aircraft in the first motion direction and the camera's focal length zooming out/in to maintain a size of an image of the target after receiving said one or more control signals indicating that the first control rod automatically returns to the preset position along the first movement direction .
A composition comprising: (a) a lactic acid bacterium (LAB) comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide and an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, or (b) a first LAB comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide, and a second LAB comprising an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, wherein said LAB is a Lactococcus species, and wherein said T1D-specific antigen polypeptide is selected from the group consisting of: proinsulin (PINS), glutamic acid decarboxylase (GAD65), insulinoma-associated protein 2 (IA-2), islet-specific glucose-6-phosphatase catalytic subunit-related protein (IGRP), zinc transporter 8 (ZnT8), chromogranin A, (prepro) islet amyloid polypeptide (ppIAPP), peripherin, and citrullinated glucose-regulated protein (GRP). (a) a lactic acid bacterium (LAB) comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide and an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, or (b) a first LAB comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide, and a second LAB comprising an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide,
A compound, selected from N-(4-(Aminobutyl)-2-naphthalenesulfonamide hydrochloride (W12); and N-(4-(Aminobutyl)-5-chloro-2-naphthalenesulfonamide hydrochloride (W13) for use in treating neuropathic pain by inhibiting TRPC4 activity. N-(4-(Aminobutyl)-2-naphthalenesulfonamide hydrochloride (W12); and N-(4-(Aminobutyl)-5-chloro-2-naphthalenesulfonamide hydrochloride (W13)
A dispersion of particulate daminozide in an aprotic organic liquid, characterised in that the dispersion comprises a dispersant system comprising a poly(hydroxy fatty acid) and an alkylated N-vinylpyrrolidinone polymer.
A device comprising: one or more microphone devices configured to generate audio data (AD) comprising spoken voice data based on spoken words of a user ; and an anonymization circuit configured to: receive the audio data (AD) comprising the spoken voice data from the one or more microphone devices ; generate anonymized audio data (AAD) by anonymizing the audio data (AD) to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data (AD); and provide the anonymized audio data (AAD) to the one or more applications (114, 118; 320, 322, 324); characterised in that the device further comprises an identification circuit configured to: receive the anonymized audio data (AAD) from the anonymization circuit ; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data (AAD); and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data (AAD). one or more microphone devices configured to generate audio data (AD) comprising spoken voice data based on spoken words of a user ; and an anonymization circuit configured to: receive the audio data (AD) comprising the spoken voice data from the one or more microphone devices ; generate anonymized audio data (AAD) by anonymizing the audio data (AD) to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data (AD); and provide the anonymized audio data (AAD) to the one or more applications (114, 118; 320, 322, 324); receive the audio data (AD) comprising the spoken voice data from the one or more microphone devices ; generate anonymized audio data (AAD) by anonymizing the audio data (AD) to prevent one or more applications (114, 118; 320, 322, 324) from extracting private information of the user from the audio data (AD); and provide the anonymized audio data (AAD) to the one or more applications (114, 118; 320, 322, 324); characterised in that the device further comprises an identification circuit configured to: receive the anonymized audio data (AAD) from the anonymization circuit ; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data (AAD); and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data (AAD). receive the anonymized audio data (AAD) from the anonymization circuit ; evaluate operations performed by the anonymization circuit by determining whether the private information is extractible from the anonymized audio data (AAD); and cause the anonymization circuit to update the operations in response to a determination that the private information is extractible from the anonymized audio data (AAD).
A method of manufacturing a composite part, comprising: printing a part skeleton , wherein the part skeleton is printed using an additive manufacturing process; then covering the part skeleton with a permeable release film to form a covered part skeleton; and then infusing the covered part skeleton with resin , wherein the permeable release film allows resin to flow through the permeable release film and into the part skeleton. printing a part skeleton , wherein the part skeleton is printed using an additive manufacturing process; then covering the part skeleton with a permeable release film to form a covered part skeleton; and then infusing the covered part skeleton with resin , wherein the permeable release film allows resin to flow through the permeable release film and into the part skeleton.
Method for controlling a fuel/air ratio in a heating system , which method comprises the following steps: • generating a temporary, fluid supply change in a fluid supply characteristic variable with respect to time, • attempting to ascertain a relative signal maximum of a change in at least one combustion characteristic variable with respect to time which is correlated with the fluid supply change with respect to time, • establishing a fault state if the relative signal maximum undershoots a signal lower limit if a relative signal maximum has been ascertained, • calibrating the heating system if a fault state is established, characterized in that the fluid supply change is selected depending on a burner power parameter and wherein the power of the heating system can be ascertained on the basis of the burner power parameter . • generating a temporary, fluid supply change in a fluid supply characteristic variable with respect to time, • attempting to ascertain a relative signal maximum of a change in at least one combustion characteristic variable with respect to time which is correlated with the fluid supply change with respect to time, • establishing a fault state if the relative signal maximum undershoots a signal lower limit if a relative signal maximum has been ascertained, • calibrating the heating system if a fault state is established,