mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising one or more memory units and a circuit comprising a cipher block , said cipher block accessing the one or more memory units , wherein: - said cipher block is configured to handle data tables; - said memory units are configured to store said data tables; - said memory units are read-write memory units; - said data tables are obtained from a modified mask ; - said modified mask being determined from an initial mask and a random value , the random value selecting one or more modifications applied to the initial mask amongst a plurality of predefined modifications including permutation operations, wherein the initial mask is a mathematically optimal mask in that it is a codeword of a self-dual code of constant hamming weight. - said cipher block is configured to handle data tables; - said memory units are configured to store said data tables; - said memory units are read-write memory units; - said data tables are obtained from a modified mask ; - said modified mask being determined from an initial mask and a random value , the random value selecting one or more modifications applied to the initial mask amongst a plurality of predefined modifications including permutation operations, wherein the initial mask is a mathematically optimal mask in that it is a codeword of a self-dual code of constant hamming weight.
A method for mitigating a 5G roaming attack for an Internet of things, loT, device based on expected user equipment, UE, behavior patterns, the method comprising: receiving , at a network function, NF, including at least one processor, a service request message requesting a service from a home public land mobile network, PLMN, of a UE identified in the service request message, wherein the UE comprises an Internet of Things, loT, device; obtaining , by the NF and for the UE identified in the service request message, at least one parameter provisioned in the home PLMN to indicate an expected UE behavior pattern of the UE. comparing , by the NF, the at least one parameter provisioned in the home PLMN to indicate the expected UE behavior pattern to at least one parameter from the service request message; determining , by the NF and based on results of the comparing, that the at least one parameter from the service request message is not indicative of the expected UE behavior pattern of the UE; and in response to determining that the at least one parameter from the service request message is not indicative of the expected UE behavior pattern of the UE, dropping or rejecting the service request message. receiving , at a network function, NF, including at least one processor, a service request message requesting a service from a home public land mobile network, PLMN, of a UE identified in the service request message, wherein the UE comprises an Internet of Things, loT, device; obtaining , by the NF and for the UE identified in the service request message, at least one parameter provisioned in the home PLMN to indicate an expected UE behavior pattern of the UE. comparing , by the NF, the at least one parameter provisioned in the home PLMN to indicate the expected UE behavior pattern to at least one parameter from the service request message; determining , by the NF and based on results of the comparing, that the at least one parameter from the service request message is not indicative of the expected UE behavior pattern of the UE; and in response to determining that the at least one parameter from the service request message is not indicative of the expected UE behavior pattern of the UE, dropping or rejecting the service request message.
A power supply and drive device for a permanent magnet electric motor, the device comprising a full-wave voltage rectifier stage , configured to be supplied with an alternating current voltage (VAC) to provide a rectified voltage (VR), a power factor corrector stage , at least one smoothing capacitor to provide a direct current voltage (VDC) and a motor drive stage , which is supplied with said direct current voltage (VDC); said at least one smoothing capacitor being not of the electrolytic type and the power factor corrector stage comprising control means to control an input current (IPFC) of the power factor corrector stage ; wherein said control means are feedback control means , which are designed to generate a reference current (IREF) as a function of said direct current voltage (VDC) and to control said input current (IPFC) as a function of the reference current (IREF), the device being characterised in that said motor drive stage is configured to provide a first signal (P) indicating a measure of the power required by the motor and said feedback control means are configured to generate said reference current as a function of said first signal (P) and comprises first signal processing means (13-15) to obtain a second signal (S1) as a function of a voltage difference (VDIF) between said direct current voltage (VDC) and a reference voltage value (VREF), second signal processing means to obtain a third signal (S2) as a function of a division of the first signal (P) by said reference voltage value (VREF) and third signal processing means to obtain said reference current (IREF) as a function of the second signal (S1) and of the third signal (S2); said first signal processing means (13-15) comprising a low-pass filter to filter said voltage difference (VDIF).
A mobile handheld laser source simulator for a laser seeking ammunition head, comprising a LED light source configured to emit light in IR wavelength in a firing mode; an oscillator driving the LED light source in a predefined pulse repetition frequency (fn); an electronic control unit connected to the oscillator in a signal transmitting manner and a casing having an output from which an infra-red light in the pulse repetition frequency (fn) is radiated from the LED light source characterized in that an output energy magnitude controller is configuring the LED light source to radiate a short magnitude reflection pulse (w1) and a subsequent higher magnitude target pulse (w2) at the predefined pulse repetition frequency by means of the electronic control unit in a firing mode.
A composition for use in preventing or treating peritoneal fibrosis, comprising cyclo(His-Pro) or a pharmaceutically acceptable salt thereof.
A patch comprising: a backing layer; and an adhesive layer laminated on the backing layer, wherein a water vapor transmission rate of the backing layer is 4000 g/m 2 ·24 hours or more, and the adhesive layer comprises a drug, dimethylsulfoxide and an adhesive, and wherein the water vapor transmission rate of the backing layer is measured under the conditions of 40°C and 90% RH in accordance with JIS Z0208. a backing layer; and an adhesive layer laminated on the backing layer, wherein a water vapor transmission rate of the backing layer is 4000 g/m 2 ·24 hours or more, and the adhesive layer comprises a drug, dimethylsulfoxide and an adhesive, and wherein the water vapor transmission rate of the backing layer is measured under the conditions of 40°C and 90% RH in accordance with JIS Z0208.
Valve device with an actuator, which comprises an electric motor and a gear unit , which comprises as output members at least one gear wheel with a decentrally supported eccentric output pin and a slotted link , which cooperates with the eccentric output pin , and a valve rod , which is directly connected to the slotted link and to which a valve body is attached, which is prestressed via a spring element and can be moved axially opposite to the prestressing direction of the spring element by actuating the actuator, the valve body being movable in operation between a first operating position, in which the valve body comprises a maximum distance from the actuator, and a second operating position, in which the valve body comprises a minimum distance from the actuator, wherein all operating positions of the eccentric output pin between a bottom dead centre and a top dead centre lie on one side of an axis which passes through the bottom dead centre and the top dead centre of the eccentric output pin , wherein in a locking position in which the valve body is spaced from the valve seat the eccentric outlet pin or a bearing arranged on the eccentric outlet pin is loaded by the spring element against an end stop of the slotted link and bears against this end stop of the slotted link , wherein the eccentric output pin is arranged in the locking position on the side of the axis opposite the operating positions, which axis passes through the bottom dead centre and the top dead centre of the eccentric output pin . which comprises an electric motor and a gear unit , which comprises as output members at least one gear wheel with a decentrally supported eccentric output pin and a slotted link , which cooperates with the eccentric output pin , and a valve rod , which is directly connected to the slotted link and to which a valve body is attached, which is prestressed via a spring element and can be moved axially opposite to the prestressing direction of the spring element by actuating the actuator, the valve body being movable in operation between a first operating position, in which the valve body comprises a maximum distance from the actuator, and a second operating position, in which the valve body comprises a minimum distance from the actuator, wherein all operating positions of the eccentric output pin between a bottom dead centre and a top dead centre lie on one side of an axis which passes through the bottom dead centre and the top dead centre of the eccentric output pin , wherein in a locking position in which the valve body is spaced from the valve seat the eccentric outlet pin or a bearing arranged on the eccentric outlet pin is loaded by the spring element against an end stop of the slotted link and bears against this end stop of the slotted link , wherein the eccentric output pin is arranged in the locking position on the side of the axis opposite the operating positions, which axis passes through the bottom dead centre and the top dead centre of the eccentric output pin .
A method employed by a computing device comprising: receiving sensor data captured by one or more sensors of a computing device, the sensor data comprising a first image of the real-world environment and first mesh data derived from a depth scan, the data captured from a first perspective ; receiving input data indicating a second perspective ; generating a three-dimensional, 3D, representation of the real-world environment from the first image and the first mesh data ; receiving a second image and second mesh data captured by a camera , wherein the camera is included in the first image , wherein a position of the camera is known, wherein a past first image and past first mesh data associated with the position of the camera , when the camera was not present, is available; integrating the second image and second mesh data into the 3D representation; integrating a portion of the past first image that includes the position of the camera and a portion of the past first mesh data that includes the position of the camera into the three-dimensional representation, so that a rendering of the three-dimensional representation does not include the camera ; and rendering the first image in a user interface, UI, from the second perspective by rendering the three-dimensional representation of the real-world environment from the second perspective . receiving sensor data captured by one or more sensors of a computing device, the sensor data comprising a first image of the real-world environment and first mesh data derived from a depth scan, the data captured from a first perspective ; receiving input data indicating a second perspective ; generating a three-dimensional, 3D, representation of the real-world environment from the first image and the first mesh data ; receiving a second image and second mesh data captured by a camera , wherein the camera is included in the first image , wherein a position of the camera is known, wherein a past first image and past first mesh data associated with the position of the camera , when the camera was not present, is available; integrating the second image and second mesh data into the 3D representation; integrating a portion of the past first image that includes the position of the camera and a portion of the past first mesh data that includes the position of the camera into the three-dimensional representation, so that a rendering of the three-dimensional representation does not include the camera ; and rendering the first image in a user interface, UI, from the second perspective by rendering the three-dimensional representation of the real-world environment from the second perspective .
A compound represented by the following formula (I), or a salt thereof: wherein R 1 represents a C1-C4 alkyl group optionally having a C1-C4 alkoxy group as a substituent, or a C3-C4 cycloalkyl group; R 2 represents a hydrogen atom, a halogen atom, a C1-C6 alkyl group optionally having 1 to 5 C1-C4 alkoxy groups or fluorine atoms each as a substituent(s), or a C1-C6 alkoxy group; R 3 represents a hydrogen atom, or a C1-C4 alkyl group optionally having 1 to 5 fluorine atoms as a substituent(s); R 4 represents a hydrogen atom or a C1-C4 alkyl group; and R 5 represents a phenyl group optionally having 1 to 3 substituents selected from fluorine atoms and chlorine atoms. R 2 represents a hydrogen atom, a halogen atom, a C1-C6 alkyl group optionally having 1 to 5 C1-C4 alkoxy groups or fluorine atoms each as a substituent(s), or a C1-C6 alkoxy group; R 3 represents a hydrogen atom, or a C1-C4 alkyl group optionally having 1 to 5 fluorine atoms as a substituent(s); R 4 represents a hydrogen atom or a C1-C4 alkyl group; and R 5 represents a phenyl group optionally having 1 to 3 substituents selected from fluorine atoms and chlorine atoms.
Device for contactless measuring an embryo's heart rate in an egg whereby infrared light is sent in the egg by a light source and the reflection of that light is detected by one or more light sensors and converted into a signal that is representative for the heart rate, wherein the device comprises one light source whereby a light tube is provided between the light source and the egg such that it does not make contact with the egg during measurement whereby the light tube is internally dimensioned and positioned such that a focused light spot is directed on the egg , and the light tube is dimensioned and positioned such that light reflected on the surface of the egg on the level of the light spot cannot directly reach the light sensors , whereby the length of the light tube is such that the light is directed on the egg in a fine beam, whereby on one end the light tube is provided around the light source so no light can escape, whereby the light tube is provided with a widened edge at least at the end near the egg , whereby the one or more light sensors are provided around the light source and the light sensors are located in the shadow field of the widened edge of the light tube .
A method for digitally generating a hologram of a three-dimensional scene in the plane, called screen plane, of a screen of a hologram display device intended to be worn by a user , said screen being illuminated by a plane coherent light wave, a convergent lens being arranged between the screen and said user, such that the hologram is formed in the plane of the lens, said method comprising the following steps: - Obtaining (E1) an intensity map and a depth map of the scene corresponding to the viewpoint of the user; - Projecting (E2) according to an inverted perspective projection model of a virtual camera co-located with the user, the points of the intensity map on a plurality of planes parallel to the screen plane in a reference frame of the screen, a plane among the plurality of planes parallel to the screen plane in the reference frame of the screen being associated with a depth value of between a minimum value and a maximum value of the depth map, a point of the intensity map being projected on the plane of the plurality of planes associated with the depth value of said point in the depth map; - Compensating (E3) for a distortion induced by the convergent lens on the hologram by modifying the plurality of planes of the scene, a point of a plane among the plurality of planes of the scene, called image point of an object point by conjugation of said convergent lens, being replaced by said object point; - from the plurality of modified planes, called object planes, propagating (E4) a complex sampled light wave to the screen plane and summing the propagated light waves. - Obtaining (E1) an intensity map and a depth map of the scene corresponding to the viewpoint of the user; - Projecting (E2) according to an inverted perspective projection model of a virtual camera co-located with the user, the points of the intensity map on a plurality of planes parallel to the screen plane in a reference frame of the screen, a plane among the plurality of planes parallel to the screen plane in the reference frame of the screen being associated with a depth value of between a minimum value and a maximum value of the depth map, a point of the intensity map being projected on the plane of the plurality of planes associated with the depth value of said point in the depth map; - Compensating (E3) for a distortion induced by the convergent lens on the hologram by modifying the plurality of planes of the scene, a point of a plane among the plurality of planes of the scene, called image point of an object point by conjugation of said convergent lens, being replaced by said object point; - from the plurality of modified planes, called object planes, propagating (E4) a complex sampled light wave to the screen plane and summing the propagated light waves.
Supporting bearing of a vibration damper or a damper/spring unit in the wheel suspension system of a vehicle with a supporting bearing flange which is supported on and fastened in a non-positive manner to a vehicle body structure of the vehicle, which supporting bearing flange engages around an annular elastomer element , in which an element of the damper and, in particular, its piston rod is suspended, the supporting bearing flange penetrating a passage opening in the vehicle body structure with a circular collar which forms a hollow cylinder, the cylinder axis of which coincides at least approximately with the longitudinal axis (L) of the vibration damper , to such an extent that a supporting bearing nut or a supporting bearing cover which is designed in the manner of a union nut can be screwed and is screwed onto a thread (G) which is provided on the outer wall of the said collar , which supporting bearing nut or supporting bearing cover pulls the supporting bearing flange towards the vehicle body structure in a manner which is supported ultimately on the vehicle body structure, with the result that an edge ring section of the vehicle body , which edge ring section surrounds the passage opening , is clamped in between the supporting bearing flange and the supporting bearing nut or the supporting bearing cover, characterized in that a measure for increasing the prestressing force in the threaded connection (G) between the supporting bearing nut and the collar is provided, which measure goes beyond the design of the supporting bearing nut and the thread (G), for which purpose the collar has a shape which increases its elasticity in the direction of the longitudinal axis of the thread (G), with the result that the collar of the supporting bearing flange can be elastically deformed slightly as viewed in the direction of the longitudinal axis (L) of the said thread (G).
Mix dispenser comprising a hopper with a top opening for filling the hopper with a predetermined amount of mix and a bottom opening , said dispenser comprising a conveyor which forms the bottom of said hopper and is designed to extract the mix from the hopper and convey it towards an end so as to fill a mould; characterized in that said conveyor comprises a supporting meshwork operated by an electric motor , said supporting meshwork being lined with a plastic film .
A method for producing a component by forming a workpiece from sheet metal with a bending machine having a control device and a manufacturing program for operating the bending machine , wherein in a processing area at least two manufacturing steps (F1, F2) each with a bending formation (B 1, B2) are carried out on the workpiece , and wherein the processing area is recorded by a camera and images of the processing area are displayed to the operator by a display means , wherein during the performance of a first manufacturing step (F1), working instructions (G1, G2, G3) for a subsequent phase of the current, first manufacturing step (F1) or for a subsequent, second manufacturing step (F2) are superimposed by an image processing program on the images of the processing area to be displayed by the display means and are displayed by the display means , characterized in that the application of edges of the workpiece to abutments provided for the alignment of the workpiece is recognized by an image recognition program from the images of the processing area recorded by the camera and then the bending forming (B1, B2) is automatically started by the control device .
A method for determining one or more heart beat features, the method comprising: capturing a series of images of a user in a car by a camera in the car, wherein each image comprises one or more colour signals; for each of the images: locating a face of the user in the image; determining a boundary in the image, wherein the face is located within the boundary; detecting one or more facial features within the boundary; and based on the detected facial features, determining one or more regions in the image representing skin patches in the face; analysing the colour signals in the regions representing the skin patches; and determining one or more heart beat features based on the analysis, wherein analysing the colour signals further comprises: determining colour changes in the series of images of one or more skin patches; characterized in that analysing the colour signals further comprises: creating a pulse wave for each skin patch based on the colour changes; splitting the pulse waves from each skin patch into one or more overlapping time windows; transforming each of the windows into the frequency space to generate frequency spectra; and summing up said spectra into one accumulated spectrum. capturing a series of images of a user in a car by a camera in the car, wherein each image comprises one or more colour signals; for each of the images: locating a face of the user in the image; determining a boundary in the image, wherein the face is located within the boundary; detecting one or more facial features within the boundary; and based on the detected facial features, determining one or more regions in the image representing skin patches in the face; locating a face of the user in the image; determining a boundary in the image, wherein the face is located within the boundary; detecting one or more facial features within the boundary; and based on the detected facial features, determining one or more regions in the image representing skin patches in the face; analysing the colour signals in the regions representing the skin patches; and determining one or more heart beat features based on the analysis, wherein analysing the colour signals further comprises: determining colour changes in the series of images of one or more skin patches; characterized in that analysing the colour signals further comprises: creating a pulse wave for each skin patch based on the colour changes; splitting the pulse waves from each skin patch into one or more overlapping time windows; transforming each of the windows into the frequency space to generate frequency spectra; and summing up said spectra into one accumulated spectrum. creating a pulse wave for each skin patch based on the colour changes; splitting the pulse waves from each skin patch into one or more overlapping time windows; transforming each of the windows into the frequency space to generate frequency spectra; and summing up said spectra into one accumulated spectrum.