mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a system of a vehicle seat , in which - the pressure distribution on the surface of the vehicle seat is measured by means of pressure sensors, - the measurement data are forwarded to a microcontroller , - the microcontroller determines the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ) on the basis of the measured data and learned knowledge using neural network module - and controls via valves an actuator element according the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ), - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network (RNN) and the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network (RNN) is encoded by a convolutional neural network (CNN). - the pressure distribution on the surface of the vehicle seat is measured by means of pressure sensors, - the measurement data are forwarded to a microcontroller , - the microcontroller determines the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ) on the basis of the measured data and learned knowledge using neural network module - and controls via valves an actuator element according the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ), - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network (RNN) and the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network (RNN) is encoded by a convolutional neural network (CNN). - characterized in that the learned knowledge is based on a record which is processed by means of a recurrent neural network (RNN) and the sitting posture (P 1 ,P 2 ,P 3 ,P 4 ) is determined by means of the Softmax-function, - wherein the data input of the recurrent neural network (RNN) is encoded by a convolutional neural network (CNN).
A monitoring device with an optical sensor , by means of which object monitoring is carried out within a protective field , wherein object monitoring is additionally carried out with the optical sensor within two contour recognition fields , wherein the contour recognition fields project beyond the protective field and do not overlap there at least partially, wherein an evaluation unit is provided in which a safety function is triggered when an object intervention is registered in the protective field , characterised in that this safety function is suppressed if an object intervention was previously registered first in a first contour detection field and then in the second contour detection field within a predetermined time interval.
An additive manufacturing apparatus for making an object using an energetic source of solidifying radiation working upon a build material in a build area , comprising: - an optical element realised to expand a radiation beam (L) into a planar beam ; - a light valve assembly arranged to receive the planar beam and to generate an output array of individually controlled light spots; - a beam expander for expanding the output of the light valve ; - a scanning device configured to receive the expanded beam from the beam expander and to direct the expanded beam toward the build area ; - a lens arrangement configured to correct distortion of the expanded beam from the scanning device to give a work beam in the form of a linear array at the build area ; - an input interface for receiving a sequence of pixel power strings for a desired exposure of an object layer of the object , wherein each pixel power string comprises a leading zone (130 pre ) in which leading pixels are switched on and off in a manner that will result in preheating the build material prior to solidification, and a melt zone (130 melt ) in which the remaining pixels are on; and - a controller configured to control at least the light valve assembly and the scanning device to sweep the work beam across the build area while applying the sequence of pixel switching strings to control the light valve assembly , thereby preheating build material immediately prior to melting and solidification. - an optical element realised to expand a radiation beam (L) into a planar beam ; - a light valve assembly arranged to receive the planar beam and to generate an output array of individually controlled light spots; - a beam expander for expanding the output of the light valve ; - a scanning device configured to receive the expanded beam from the beam expander and to direct the expanded beam toward the build area ; - a lens arrangement configured to correct distortion of the expanded beam from the scanning device to give a work beam in the form of a linear array at the build area ; - an input interface for receiving a sequence of pixel power strings for a desired exposure of an object layer of the object , wherein each pixel power string comprises a leading zone (130 pre ) in which leading pixels are switched on and off in a manner that will result in preheating the build material prior to solidification, and a melt zone (130 melt ) in which the remaining pixels are on; and - a controller configured to control at least the light valve assembly and the scanning device to sweep the work beam across the build area while applying the sequence of pixel switching strings to control the light valve assembly , thereby preheating build material immediately prior to melting and solidification.
An oral care composition comprising a zinc-amino acid-halide complex, wherein the amino acid is selected from lysine and arginine, and further comprising linear polyvinylpyrrolidone (I-PVP).
A tire tread comprising: a plurality of ground contact elements which are defined by a plurality of grooves formed on a ground contact surface in contact with a road surface when a tire is rolling, and having an upper surface forming a portion of the ground contact surface ; and a plurality of small recesses which open at the upper surface , are indented inwardly in the tire radial direction, and are not in communication with each other, the depth h of the small recesses being between 0.15 mm and 1.5 mm when the tread is brand new, and a projected density of the small recesses being 200 or greater, the projected density being a value obtained by dividing the total projected length LP (mm) of the small recesses present on the upper surface of the ground contact elements , projected on a plane parallel to the tire axis of rotation and perpendicular to the upper surface , by the surface area (mm 2 ) of the upper surface when the small recesses are not present, and multiplying the result by 1000, the small recesses comprising a transverse sectional shape having a short direction length LS and a long direction length LL , a projected length LP projected on a plane parallel to the tire axis of rotation and perpendicular to the upper surface being greater than the short direction length LS, said tire tread being characterized in that the long direction length LL is between 0.15 mm and 3.0 mm. a plurality of ground contact elements which are defined by a plurality of grooves formed on a ground contact surface in contact with a road surface when a tire is rolling, and having an upper surface forming a portion of the ground contact surface ; and a plurality of small recesses which open at the upper surface , are indented inwardly in the tire radial direction, and are not in communication with each other, the depth h of the small recesses being between 0.15 mm and 1.5 mm when the tread is brand new, and a projected density of the small recesses being 200 or greater, the projected density being a value obtained by dividing the total projected length LP (mm) of the small recesses present on the upper surface of the ground contact elements , projected on a plane parallel to the tire axis of rotation and perpendicular to the upper surface , by the surface area (mm 2 ) of the upper surface when the small recesses are not present, and multiplying the result by 1000, the small recesses comprising a transverse sectional shape having a short direction length LS and a long direction length LL , a projected length LP projected on a plane parallel to the tire axis of rotation and perpendicular to the upper surface being greater than the short direction length LS, said tire tread being characterized in that the long direction length LL is between 0.15 mm and 3.0 mm.
A seismic-resistant nuclear fuel storage system comprising: a fuel pool comprising a base slab and plurality of vertical sidewalls collectively defining a cavity configured for wet storage of nuclear fuel; a fuel rack comprising a plurality of vertically elongated tubular cells each defining a prismatic cavity configured for storing nuclear fuel therein, the cells attached to a common baseplate ; a plurality of pedestals protruding downwardly from the baseplate; a plurality of spaced apart embedment plates fixedly anchored to the base slab, each embedment plate comprising an upwardly open receptacle having receptacle walls defining a receptacle depth, each receptacle receiving and entrapping one of the pedestals of the fuel rack therein; characterized in that the embedment plate receptacles are configured such that lateral movement of the fuel rack along the base slab in the event of a seismic event is constrained by engagement between the receptacle walls of each receptacle and the pedestals. a fuel pool comprising a base slab and plurality of vertical sidewalls collectively defining a cavity configured for wet storage of nuclear fuel; a fuel rack comprising a plurality of vertically elongated tubular cells each defining a prismatic cavity configured for storing nuclear fuel therein, the cells attached to a common baseplate ; a plurality of pedestals protruding downwardly from the baseplate; a plurality of spaced apart embedment plates fixedly anchored to the base slab, each embedment plate comprising an upwardly open receptacle having receptacle walls defining a receptacle depth, each receptacle receiving and entrapping one of the pedestals of the fuel rack therein; characterized in that the embedment plate receptacles are configured such that lateral movement of the fuel rack along the base slab in the event of a seismic event is constrained by engagement between the receptacle walls of each receptacle and the pedestals.
A bulletproof protection structure comprising at least a flexible base and a reinforcing structure realized by means of at least one ballistic panel associated with said flexible base , wherein said ballistic panel is finely divided into a plurality of elementary components , individually associated with said flexible base , structurally independent of one another and not bound to each other, so as to ensure a flexibility for said structure as a whole, said elementary components being associated with said flexible base in correspondence with at least a surface thereof through at least a thermoplastic film gluing said elementary components to said flexible base , wherein said elementary components are in the form of flat tiles having a hexagonal shape and said flexible base is made of ballistic fabric and each elementary component has said surface glued to said flexible base having an area less than 2% smaller than an area of said ballistic panel .
A method of detecting radio disturbances in a radio communication system of a building security and alarm system, the radio communication system comprising a gateway device and a peripheral device , each arranged to send radio signals to and to receive radio signals from the other, the radio signals being in the form of separate information segments transmitted as data packets in the time domain, the method comprising the steps: i. measuring at the gateway device the power level (Pm) of separate information segments of the radio signals received from the peripheral device , to obtain measured power level values; ii. determining a statistical value (Pd) of the measured power level values for the separate information segments; iii. comparing a selected measured power level with the statistical value; and iv. producing an alert signal, indicating a radio disturbance, if the difference between the selected measured power level and the statistical value exceeds a threshold. i. measuring at the gateway device the power level (Pm) of separate information segments of the radio signals received from the peripheral device , to obtain measured power level values; ii. determining a statistical value (Pd) of the measured power level values for the separate information segments; iii. comparing a selected measured power level with the statistical value; and iv. producing an alert signal, indicating a radio disturbance, if the difference between the selected measured power level and the statistical value exceeds a threshold.
An indoor unit comprising: a main body unit including a housing having an opening hole for pipe formed on a part of a side surface of the main body unit ; at least one refrigerant pipe connection part projecting from inside to outside of the housing through the opening hole for pipe; and an attachment plate holding and fixing the at least one refrigerant pipe connection part together with the housing and closing the opening hole for pipe, the opening hole for pipe being formed over a first side surface on a side of the housing from which the at least one refrigerant pipe connection part projects and a second side surface adjacent to the first side surface , the attachment plate having an L shape including planes corresponding to the opening hole for pipe over the first side surface and the second side surface , the attachment plate including a plate-side heat insulating material holding the at least one refrigerant pipe connection part together with a main-body-side heat insulating material provided to an inner surface side of the housing , characterized in that the plate-side heat insulating material is harder than the main-body-side heat insulating material . a main body unit including a housing having an opening hole for pipe formed on a part of a side surface of the main body unit ; at least one refrigerant pipe connection part projecting from inside to outside of the housing through the opening hole for pipe; and an attachment plate holding and fixing the at least one refrigerant pipe connection part together with the housing and closing the opening hole for pipe, the opening hole for pipe being formed over a first side surface on a side of the housing from which the at least one refrigerant pipe connection part projects and a second side surface adjacent to the first side surface , the attachment plate having an L shape including planes corresponding to the opening hole for pipe over the first side surface and the second side surface , the attachment plate including a plate-side heat insulating material holding the at least one refrigerant pipe connection part together with a main-body-side heat insulating material provided to an inner surface side of the housing , characterized in that the plate-side heat insulating material is harder than the main-body-side heat insulating material .
An omnidirectional moving surface system comprising: a first plurality of ball bearings; a spindle for positioning the ball bearings such that the ball bearings form a ring around the spindle; a bladder for enveloping the plurality of ball bearings; and a plurality of omni-wheels affixed intermittently around the bladder to support the bladder. a first plurality of ball bearings; a spindle for positioning the ball bearings such that the ball bearings form a ring around the spindle; a bladder for enveloping the plurality of ball bearings; and a plurality of omni-wheels affixed intermittently around the bladder to support the bladder.
A method for generating a light field in a specified work region by means of an at least partly coherent light source , wherein • light from the light source is fed to at least one modulator , with this modulator impressing different changes in at least one property of the light on different components of the light , • the modulator is controlled by a zero control pattern in such a way that the summation of the amplitude distributions of the light components guided via the modulator has zeros at at least two positions that are specifiable independently of one another within the work region , with these zeros each adjoining regions in which this summation of the amplitude distributions differs from zero, wherein the zero control pattern denotes a spatial distribution of regions which change the phase of the light incident on the modulator , as well as the respective local absolute value of this phase change, and • the light is guided from the modulator into the work region . • light from the light source is fed to at least one modulator , with this modulator impressing different changes in at least one property of the light on different components of the light , • the modulator is controlled by a zero control pattern in such a way that the summation of the amplitude distributions of the light components guided via the modulator has zeros at at least two positions that are specifiable independently of one another within the work region , with these zeros each adjoining regions in which this summation of the amplitude distributions differs from zero, wherein the zero control pattern denotes a spatial distribution of regions which change the phase of the light incident on the modulator , as well as the respective local absolute value of this phase change, and • the light is guided from the modulator into the work region .
Method for the oxidative dehydrogenation of butene to generate 1,3-butadiene wherein the oxidative dehydrogenation is carried out in the presence of a catalyst, the catalyst comprising a porous aluminum silicate support and a metal oxide having a composition represented by Formula 1 below: [Formula 1] AB 2 O 4 wherein A is one or more selected from the group consisting of divalent cation metals and B is one or more selected from the group consisting of trivalent cation metals, wherein A is one or more selected from the group consisting of Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, and Fe (II), wherein B is one or more selected from the group consisting of Al, Fe(III), Cr, Ga, In, Ti, La, and Ce, and [wherein the porous aluminum silicate support has a pore distribution of 0.394 to 196.85 pores per cm (1 to 500 ppi (pores per inch)). wherein A is one or more selected from the group consisting of divalent cation metals and B is one or more selected from the group consisting of trivalent cation metals, wherein A is one or more selected from the group consisting of Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, and Fe (II), wherein B is one or more selected from the group consisting of Al, Fe(III), Cr, Ga, In, Ti, La, and Ce, and [wherein the porous aluminum silicate support has a pore distribution of 0.394 to 196.85 pores per cm (1 to 500 ppi (pores per inch)).
A load-indicating device , comprising: a washer having a tubular body defining a bore extending therethrough, the body comprising at least one radial hole extending at least partially through the body ; and a probe configured to be disposed within the at least one radial hole and operable to provide an indication of the compression on the washer, such that, in use, the washer deflects to compress the hole against the probe when the load on the washer reaches a predetermined tension, wherein the probe is arranged to be rotatable within the hole until the load on the washer reaches the predetermined tension. a washer having a tubular body defining a bore extending therethrough, the body comprising at least one radial hole extending at least partially through the body ; and a probe configured to be disposed within the at least one radial hole and operable to provide an indication of the compression on the washer, such that, in use, the washer deflects to compress the hole against the probe when the load on the washer reaches a predetermined tension, wherein the probe is arranged to be rotatable within the hole until the load on the washer reaches the predetermined tension.
Airborne ultrasound testing system for a test object containing a sound generator (1;9) and a sound receiver and a control to control both, the sound generator (1;9) and the sound receiver , and a computer assisted test result interface to register or display a test result or an image of a tested test object derived from the signals of the sound receiver , characterized in that the sound generator is a resonance-free thermo-acoustic ultrasound generator which does not rely on mechanically deformable or oscillating parts, said sound generator is constructed as a pulsed laser which emits a Dirac-like excitation laser pulse having an excitation pulse signal of less than 1 microsecond and that the sound receiver is a membrane-free laser-based optical microphone, said membrane-free laser-based optical microphone detects pressure variations by optical means based on an interferometric read-out of the optical wavelength alteration caused by the sound-pressure induced alteration of the refractive index of the sound propagating medium, in an air or gas coupled pulse-echo arrangement or in an air or gas coupled transmission mode arrangement.
A buckle , comprising: a tab ; a plurality of posts on the tab ; a plurality of pawls pivotally connected to the plurality of posts on the tab so that the plurality of pawls pivot around the plurality of posts ; and a receiver that defines a cavity to receive the tab , wherein the tab and the receiver have a locked position in which each pawl of the plurality of pawls engages with the receiver to prevent movement of the tab with respect to the receiver and a released position in which each pawl of the plurality of pawls permits movement of the tab with respect to the receiver ; characterized in that the buckle further comprises a plurality of buttons on the receiver , wherein the plurality of buttons has a released position that moves each pawl of the plurality of pawls to the released position. a tab ; a plurality of posts on the tab ; a plurality of pawls pivotally connected to the plurality of posts on the tab so that the plurality of pawls pivot around the plurality of posts ; and a receiver that defines a cavity to receive the tab , wherein the tab and the receiver have a locked position in which each pawl of the plurality of pawls engages with the receiver to prevent movement of the tab with respect to the receiver and a released position in which each pawl of the plurality of pawls permits movement of the tab with respect to the receiver ; characterized in that the buckle further comprises a plurality of buttons on the receiver , wherein the plurality of buttons has a released position that moves each pawl of the plurality of pawls to the released position.