mhurhangee/patent-ind-claim-en huggingface dataset:
A co-curable thermoset acoustic liner comprising: a sound attenuating core having a plurality of core cells extending from an inner core edge to an outer core edge ; an outer face sheet secured to the outer core edge of the sound attenuating core ; an inner face sheet having a plurality of face sheet apertures extending through the inner face sheet ; and an inner thermoset adhesive sheet having a plurality of adhesive sheet apertures disposed between the inner face sheet and the sound attenuating core and securing the inner face sheet to the inner core edge , wherein each of the plurality of adhesive sheet apertures is aligned within a corresponding one of the plurality of face sheet apertures , and wherein more than one of the plurality of adhesive sheet apertures is aligned within each of the plurality of face sheet apertures , so that the plurality of core cells are placed in fluid communication with airflow over the inner face sheet by the plurality of face sheet apertures and the plurality of adhesive sheet apertures creating a Single Degree of Freedom (SDOF) acoustic liner wherein the inner face sheet , the outer face sheet , the inner adhesive sheet and the sound attenuating core are co-bonded into the thermoset acoustic liner. a sound attenuating core having a plurality of core cells extending from an inner core edge to an outer core edge ; an outer face sheet secured to the outer core edge of the sound attenuating core ; an inner face sheet having a plurality of face sheet apertures extending through the inner face sheet ; and an inner thermoset adhesive sheet having a plurality of adhesive sheet apertures disposed between the inner face sheet and the sound attenuating core and securing the inner face sheet to the inner core edge , wherein each of the plurality of adhesive sheet apertures is aligned within a corresponding one of the plurality of face sheet apertures , and wherein more than one of the plurality of adhesive sheet apertures is aligned within each of the plurality of face sheet apertures , so that the plurality of core cells are placed in fluid communication with airflow over the inner face sheet by the plurality of face sheet apertures and the plurality of adhesive sheet apertures creating a Single Degree of Freedom (SDOF) acoustic liner wherein the inner face sheet , the outer face sheet , the inner adhesive sheet and the sound attenuating core are co-bonded into the thermoset acoustic liner.
Method in a monitoring device for generating a transformation function mapping position detections of objects in a scene, detected with a positioning device, to a graphical representation of the scene, comprising; detecting a first position of an object positioned in a first calibration position in the scene with the positioning device, wherein the detected first position is a position relative to the position of the positioning device, receiving a first set of image coordinates representing the first calibration position in the graphical representation of the scene performed in response to requesting a user to mark the first location in a graphical user interface of the positioning device displaying the graphical representation of the scene representing the first calibration position in the graphical representation, storing the received first set of image coordinates and the, by the positioning device, detected first position corresponding to the first calibration position in a memory, detecting a second position of an object positioned in a second calibration position in the scene with the positioning device, wherein the detected second position is a position relative to the position of the positioning device, receiving a second set of image coordinates representing the second calibration position in the graphical representation of the scene performed in response to requesting a user to mark the second location in a graphical user interface of the positioning device displaying the graphical representation of the scene representing the second calibration position in the graphical representation, storing the received second set of image coordinates and the, by the positioning device, detected second position corresponding to the second calibration position in a memory, and, generating a transformation function mapping position detections from the positioning device to locations in the graphical representation of the scene by comparing the stored first set of image coordinates and the, with the positioning device, detected first position corresponding to the first calibration position to the stored second set of image coordinates and the, with the positioning device, detected second position corresponding to the second calibration position wherein the transformation function is able to handle translation, rotation and scaling transformations from a coordinate system of the position detections by the positioning device to the graphical representation of the scene.
A device for heat sealing a package comprising: a support boss plate having a boss with a face with one or more cavities for receiving a package and one or more gaskets secured to the face and surrounding at least a portion of the one or more cavities , wherein the gasket and at least the portion of the face on which the one or more gaskets is secured is non-flat, and a heater plate having a heater with a face and one or more heating flanges mateable with the one or more gaskets on the support boss , wherein the one or more heating flanges are non-flat; wherein upon mating of the support boss with the heater and an application of a downward directional force and heat, a package may be sealed with a non-linear seal along the downward directional force, characterised in that the support boss plate and the heater boss plate comprise multiple bosses and multiple heaters corresponding to the multiple bosses , wherein the multiple bosses are independently adjustable about the x, y, and z axis.
A control device for a hybrid vehicle, comprising: - a starting clutch (CL2) disposed between a drive source (MG) and drive wheels (FR, FL, RR, RL), - a slip drive mode (WSC drive mode) in which the vehicle travels with the drive source (MG) placed under a rotation speed control at a higher rotation speed than an output side rotation speed of the starting clutch (CL2) while performing a slip control on the starting clutch (CL2) to achieve a value in accordance with a target drive torque (tFoO) which is set based on an accelerator pedal opening degree (APO), - an engagement drive mode (HEV drive mode) in which the vehicle travels with the drive source (MG) placed under a torque control in accordance with the target drive torque (tFoO) while fully engaging the starting clutch (CL2), and - a clutch control mechanism that is configured to control a starting clutch transfer torque capacity at the time of the slip control, characterized in that the clutch control mechanism, when transitioning in mode from the slip drive mode to the engagement drive mode, is configured - to calculate a transfer torque capacity that ensures a same output shaft angle acceleration between a slip state and an engaged state of the starting clutch (CL2) and - to deduct from this transfer torque capacity inertia components at a side of the drive source (MG) in order - to set the starting clutch transfer torque capacity at the slip state. - a starting clutch (CL2) disposed between a drive source (MG) and drive wheels (FR, FL, RR, RL), - a slip drive mode (WSC drive mode) in which the vehicle travels with the drive source (MG) placed under a rotation speed control at a higher rotation speed than an output side rotation speed of the starting clutch (CL2) while performing a slip control on the starting clutch (CL2) to achieve a value in accordance with a target drive torque (tFoO) which is set based on an accelerator pedal opening degree (APO), - an engagement drive mode (HEV drive mode) in which the vehicle travels with the drive source (MG) placed under a torque control in accordance with the target drive torque (tFoO) while fully engaging the starting clutch (CL2), and - a clutch control mechanism that is configured to control a starting clutch transfer torque capacity at the time of the slip control, - to calculate a transfer torque capacity that ensures a same output shaft angle acceleration between a slip state and an engaged state of the starting clutch (CL2) and - to deduct from this transfer torque capacity inertia components at a side of the drive source (MG) in order - to set the starting clutch transfer torque capacity at the slip state.
Impeller wheel apparatus comprising a rotatable impeller wheel , wherein: a. the impeller wheel comprises a rotor and a plurality of blades uniformly distributed over the circumference of the rotor and pivotably attached to the rotor , b. the blades are pivotable from a first position to a second position in an unfolding pivoting movement in an unfolding direction, c. the blades rest against the rotor in the first position, d. the blades project from the rotor in a substantially radial direction in the second position, e. the impeller wheel is designed to be arranged in a flow , so that the flow exerts on the blades , at least in a final part of the unfolding pivoting movement, an unfolding moment directed in the unfolding direction, said impeller wheel apparatus comprising a mechanical connection connecting adjacent impellers with each other, said mechanical connection being configured such that the unfolding moment in the final part of the unfolding pivoting movement of a first impeller is at least partially translated into an unfolding moment of an adjacent impeller in an initial part of the unfolding pivotal movement of the adjacent impeller , wherein the blades are pivotally attached to the rotor at a pivot , characterized in that the pivot divides the blades into a working region which folds out radially outwards and an inner region which folds in radially inwards, the inner region bearing against a stop of the rotor in the second position. a. the impeller wheel comprises a rotor and a plurality of blades uniformly distributed over the circumference of the rotor and pivotably attached to the rotor , b. the blades are pivotable from a first position to a second position in an unfolding pivoting movement in an unfolding direction, c. the blades rest against the rotor in the first position, d. the blades project from the rotor in a substantially radial direction in the second position, e. the impeller wheel is designed to be arranged in a flow , so that the flow exerts on the blades , at least in a final part of the unfolding pivoting movement, an unfolding moment directed in the unfolding direction,
A strapping assembly , comprising: a flexible member comprising: a first end comprising: a first surface; a second surface opposing the first surface; first attachment elements ; and an aperture extending from the first surface to the second surface; and a second end comprising: a third surface; a fourth surface opposing the third surface; and second attachment elements and configured to releasably couple to the first attachment elements , thereby securing the first and second attachment elements such that a portion of the first surface is adjacent to a portion of the fourth surface and a portion of the second surface is adjacent to a portion of the third surface when a portion of the second end is inserted through the aperture; characterised in that the first attachment elements comprise at least one first magnet or ferrous material and the second attachment elements comprise at least one second magnet or ferrous material that provides at least a portion of a magnetic coupling force used to releasably couple the first attachment elements to the second attachment elements . a first end comprising: a first surface; a second surface opposing the first surface; first attachment elements ; and an aperture extending from the first surface to the second surface; and a first surface; a second surface opposing the first surface; first attachment elements ; and an aperture extending from the first surface to the second surface; and a second end comprising: a third surface; a fourth surface opposing the third surface; and second attachment elements and configured to releasably couple to the first attachment elements , thereby securing the first and second attachment elements such that a portion of the first surface is adjacent to a portion of the fourth surface and a portion of the second surface is adjacent to a portion of the third surface when a portion of the second end is inserted through the aperture; a third surface; a fourth surface opposing the third surface; and second attachment elements and configured to releasably couple to the first attachment elements , thereby securing the first and second attachment elements such that a portion of the first surface is adjacent to a portion of the fourth surface and a portion of the second surface is adjacent to a portion of the third surface when a portion of the second end is inserted through the aperture; characterised in that the first attachment elements comprise at least one first magnet or ferrous material and the second attachment elements comprise at least one second magnet or ferrous material that provides at least a portion of a magnetic coupling force used to releasably couple the first attachment elements to the second attachment elements .
A fan fault detection device comprising: a plurality of sub-modules ; and a master module determining faults of a plurality of fans , characterized in that each of the plurality of sub-modules includes: a first input terminal (IN1) receiving a detection signal indicating whether a corresponding fan has failed from the corresponding fan; a second input terminal (IN2) for receiving a state signal; an output terminal; and a first power source supplying a voltage signal corresponding to the state signal, wherein each of the plurality of sub-modules is configured to generate a combination of the state signal and the detection signal and transmit the combination to the output terminal, and in a first sub-module of the plurality of sub-modules, the second input terminal is one of: floating, connected to ground or connected to a first power source, and in the other sub-modules, the second input terminal is connected to the output terminal of a previous sub-module, and in a second sub-module of the plurality of sub-modules, the output terminal is connected to the master module. a plurality of sub-modules ; and a master module determining faults of a plurality of fans , characterized in that each of the plurality of sub-modules includes: a first input terminal (IN1) receiving a detection signal indicating whether a corresponding fan has failed from the corresponding fan; a second input terminal (IN2) for receiving a state signal; an output terminal; and a first power source supplying a voltage signal corresponding to the state signal, a first input terminal (IN1) receiving a detection signal indicating whether a corresponding fan has failed from the corresponding fan; a second input terminal (IN2) for receiving a state signal; an output terminal; and a first power source supplying a voltage signal corresponding to the state signal, wherein each of the plurality of sub-modules is configured to generate a combination of the state signal and the detection signal and transmit the combination to the output terminal, and in a first sub-module of the plurality of sub-modules, the second input terminal is one of: floating, connected to ground or connected to a first power source, and in the other sub-modules, the second input terminal is connected to the output terminal of a previous sub-module, and in a second sub-module of the plurality of sub-modules, the output terminal is connected to the master module.
A joint compound having a composition to allow tools to easily clean up, comprising at least one inert filler, wherein the at least one inert filler comprises at least one of calcium carbonate, dolomite, gypsum, perlite, mica, talc, sericite, diatomaceous earth, clay, attapulgite clay, sepiolite, kaolin, calcium sulfate dihydrate, and pyrophyllite, and a sulfonated starch binder present in the composition in a concentration of from about 0.05 % to about 10% by weight on a dry (water free solids) basis; wherein the sulfonated starch binder comprises a repeating unit of Formula I: wherein X is -RSO 3 Na or -H, wherein at least one X is -RSO 3 Na, and the R is C 2 -C 18 alkyl or arylalkyl, and n is between 25-1,500,000. at least one inert filler, wherein the at least one inert filler comprises at least one of calcium carbonate, dolomite, gypsum, perlite, mica, talc, sericite, diatomaceous earth, clay, attapulgite clay, sepiolite, kaolin, calcium sulfate dihydrate, and pyrophyllite, and a sulfonated starch binder present in the composition in a concentration of from about 0.05 % to about 10% by weight on a dry (water free solids) basis; wherein the sulfonated starch binder comprises a repeating unit of Formula I: wherein X is -RSO 3 Na or -H, wherein at least one X is -RSO 3 Na, and the R is C 2 -C 18 alkyl or arylalkyl, and n is between 25-1,500,000.
An oven , comprising: a cooking chamber ; a first passage part (S1) arranged outside the cooking chamber and tunneled with the cooking chamber; a sensor arranged in the first passage part; a second passage part (S2) separated from the first passage part by a partition , and through which forcibly suctioned external air is transferred; and an inlet and an outlet configured to allow the first and second passage parts to be tunneled with each other, wherein the inlet and the outlet are formed in the partition 200, wherein based on the inlet being closed, air in the cooking chamber flows into the first passage part, and then passes through the sensor to be discharged through the outlet, and based on the inlet being opened, air flowing from the second passage part into the first passage part through the inlet passes through the sensor to be discharged through the outlet together with the air in the cooking chamber which flows into the first passage part. a cooking chamber ; a first passage part (S1) arranged outside the cooking chamber and tunneled with the cooking chamber; a sensor arranged in the first passage part; a second passage part (S2) separated from the first passage part by a partition , and through which forcibly suctioned external air is transferred; and an inlet and an outlet configured to allow the first and second passage parts to be tunneled with each other, wherein the inlet and the outlet are formed in the partition 200, wherein based on the inlet being closed, air in the cooking chamber flows into the first passage part, and then passes through the sensor to be discharged through the outlet, and based on the inlet being opened, air flowing from the second passage part into the first passage part through the inlet passes through the sensor to be discharged through the outlet together with the air in the cooking chamber which flows into the first passage part.
A computer-implemented method for human gait analysis based on a video stream obtained from a monocular camera device , the video stream comprising a plurality of frames reflecting the walk of a human individual , the method comprising: inferring , from the obtained video stream, three-dimensional gait information wherein the three-dimensional gait information includes estimates of the individual's joint locations including at least the individual's foot locations on each frame, the estimates being derived by matching for each frame two-dimensional joint coordinates of the respective frame with respective three-dimensional model information of the individual's body; and determining one or more gait parameters of the individual based on the individual's foot locations in local extrema frames showing local extrema of the distance between one foot location of the individual and a corresponding reference joint location wherein at least one of the determined gait parameters is associated with a score characterizing a risk of fall for the individual. inferring , from the obtained video stream, three-dimensional gait information wherein the three-dimensional gait information includes estimates of the individual's joint locations including at least the individual's foot locations on each frame, the estimates being derived by matching for each frame two-dimensional joint coordinates of the respective frame with respective three-dimensional model information of the individual's body; and determining one or more gait parameters of the individual based on the individual's foot locations in local extrema frames showing local extrema of the distance between one foot location of the individual and a corresponding reference joint location wherein at least one of the determined gait parameters is associated with a score characterizing a risk of fall for the individual.
An apparatus for time synchronization, the apparatus comprising: a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a service layer request from a service layer endpoint residing on a different device to the apparatus, the service layer request comprising data of an application and a time value contained within a field of the data of the application, wherein the service layer is a middleware layer that supports value-added service capabilities through a set of application programming interfaces, APIs, and underlying networking interfaces; based on the service layer request, determining a synchronization offset; and adjusting the time value within the field of the data of the application to compensate for the determined synchronization offset. a processor ; and a memory coupled with the processor, the memory comprising executable instructions that when executed by the processor cause the processor to effectuate operations comprising: receiving a service layer request from a service layer endpoint residing on a different device to the apparatus, the service layer request comprising data of an application and a time value contained within a field of the data of the application, wherein the service layer is a middleware layer that supports value-added service capabilities through a set of application programming interfaces, APIs, and underlying networking interfaces; based on the service layer request, determining a synchronization offset; and adjusting the time value within the field of the data of the application to compensate for the determined synchronization offset. receiving a service layer request from a service layer endpoint residing on a different device to the apparatus, the service layer request comprising data of an application and a time value contained within a field of the data of the application, wherein the service layer is a middleware layer that supports value-added service capabilities through a set of application programming interfaces, APIs, and underlying networking interfaces; based on the service layer request, determining a synchronization offset; and adjusting the time value within the field of the data of the application to compensate for the determined synchronization offset.
A polyester resin comprising a constitutional unit represented by general formula : wherein R 1 is a hydrogen atom, CH 3 , or C 2 H 5 ; and R 2 and R 3 are each independently a hydrogen atom or CH 3 .