mhurhangee/patent-ind-claim-en huggingface dataset:
Hexagonal netting made of steel wires (10a-d, 12a-d, 14a-d) with hexagonal meshes (16a-d), in particular for civil engineering purposes, preferably for an application in the field of protection from natural hazards, wherein the steel wires (10a-d, 12a-d, 14a-d) are alternatingly twisted with neighbouring steel wires (10a-d, 12a-d, 14a-d) and wherein the steel wires (10a-d, 12a-d, 14a-d) are formed from a high-tensile steel or at least have a wire core made of a high-tensile steel, characterised in that an, in particular average, ratio calculated from an, in particular average, mesh width (18a-d) of the hexagonal meshes (16a-d) and an, in particular average, mesh height (20a-d) of the hexagonal meshes (16a-d), measured perpendicularly to the mesh width (18a-d), amounts to at least 0.8, wherein the mesh width (18a-d) is a distance between two twisted regions (24a-d) which delimit a hexagonal mesh (16a-d), which extend at least substantially parallel to each other and which are situated on opposite-situated sides of the hexagonal mesh (16a-d), wherein the mesh height (20a-d) is a distance between two corners (66a-d, 68a-d) of the hexagonal mesh (16a-d) which are situated opposite each other in a direction parallel to a main extension direction of the twisted region (24a-d), and wherein the high-tensile steel of the steel wires (10a-d, 12a-d, 16a-d) has a tensile strength of at least 1,560 N/mm 2 . wherein the steel wires (10a-d, 12a-d, 14a-d) are alternatingly twisted with neighbouring steel wires (10a-d, 12a-d, 14a-d) and wherein the steel wires (10a-d, 12a-d, 14a-d) are formed from a high-tensile steel or at least have a wire core made of a high-tensile steel, characterised in that an, in particular average, ratio calculated from an, in particular average, mesh width (18a-d) of the hexagonal meshes (16a-d) and an, in particular average, mesh height (20a-d) of the hexagonal meshes (16a-d), measured perpendicularly to the mesh width (18a-d), amounts to at least 0.8, wherein the mesh width (18a-d) is a distance between two twisted regions (24a-d) which delimit a hexagonal mesh (16a-d), which extend at least substantially parallel to each other and which are situated on opposite-situated sides of the hexagonal mesh (16a-d), wherein the mesh height (20a-d) is a distance between two corners (66a-d, 68a-d) of the hexagonal mesh (16a-d) which are situated opposite each other in a direction parallel to a main extension direction of the twisted region (24a-d), and wherein the high-tensile steel of the steel wires (10a-d, 12a-d, 16a-d) has a tensile strength of at least 1,560 N/mm 2 .
A shovel, comprising: an arm rotatably attached to a boom rotatably attached to a revolving body; a bucket rotatably attached to the arm; a tilt mechanism configured to support the bucket that can be tilted to the arm; a bucket tilt angle sensor (S5) configured to detect a tilt angle of the bucket; and a tilt angle controller configured to control adjusting the tilt angle, characterized in that the tilt angle controller calculates an angle deviation of the tilt angle based on a comparison result between a bucket line of the bucket calculated based on a detected value output from bucket tilt angle sensor and a target excavation surface stored in advance in a memory, to control the tilt angle so as to reduce the calculated angle deviation. an arm rotatably attached to a boom rotatably attached to a revolving body; a bucket rotatably attached to the arm; a tilt mechanism configured to support the bucket that can be tilted to the arm; a bucket tilt angle sensor (S5) configured to detect a tilt angle of the bucket; and a tilt angle controller configured to control adjusting the tilt angle, characterized in that the tilt angle controller calculates an angle deviation of the tilt angle based on a comparison result between a bucket line of the bucket calculated based on a detected value output from bucket tilt angle sensor and a target excavation surface stored in advance in a memory, to control the tilt angle so as to reduce the calculated angle deviation.
Method for selecting a, so-called network slice, set (TR1, TR2, TR3) of functions of a communications infrastructure , for the conveying of data relating to at least one application (App1, App2, App3, App4, App5) installed on a user terminal attached to said infrastructure , implemented by the terminal and comprising: - a step of sending, to a rules management entity , a request message comprising at least one application identifier, - a step of receiving, from the rules management entity , a response message comprising at least one rule allowing the terminal to determine the network slice (TR1, TR2, TR3) corresponding to the at least one identifier, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule obtained. - a step of sending, to a rules management entity , a request message comprising at least one application identifier, - a step of receiving, from the rules management entity , a response message comprising at least one rule allowing the terminal to determine the network slice (TR1, TR2, TR3) corresponding to the at least one identifier, - a step of selecting the network slice (TR1, TR2, TR3) as a function of the at least one rule obtained.
Device for the detection of the control stresses in a brake testbench apparatus for land vehicles, comprising a box body containing a load cell sensor , provided with an outer actuating portion , and means for retaining in position the box body wherein said load cell sensor is installed on a frame which has containment walls which surround said load cell , whereby said box body is defined by said frame and by the relative containment walls and is closed on one side precisely by a head part of load cell sensor , said head part being an outer actuating portion in the shape of a curved plate said load cell sensor is in the form of a T-shaped prismatic body, with said head part defining said outer actuating portion partly protruding from said frame and a trunk part housed within the frame and fastened thereto, characterized in that said load cell sensor is connected to a circuit plate for stress detection, to an electric accumulator and to a wireless transmission unit , said unit interfacing with said load cell sensor through said circuit plate so as to transmit towards a receiving unit the force signals detected by said load cell sensor , and in that said circuit plate , electric accumulator and transmission unit are housed within said box body. said load cell sensor is installed on a frame which has containment walls which surround said load cell , whereby said box body is defined by said frame and by the relative containment walls and is closed on one side precisely by a head part of load cell sensor , said head part being an outer actuating portion in the shape of a curved plate said load cell sensor is in the form of a T-shaped prismatic body, with said head part defining said outer actuating portion partly protruding from said frame and a trunk part housed within the frame and fastened thereto, characterized in that said load cell sensor is connected to a circuit plate for stress detection, to an electric accumulator and to a wireless transmission unit , said unit interfacing with said load cell sensor through said circuit plate so as to transmit towards a receiving unit the force signals detected by said load cell sensor , and in that said circuit plate , electric accumulator and transmission unit are housed within said box body.
Multi-purpose safety shoe , comprising an upper assembly , provided, at the shoe toe, with a safety toe cap and a layered sole associated with said upper assembly , said layered sole comprising a lower layer adapted to come into contact with the ground, an intermediate layer associated with said upper assembly and said lower layer , respectively, and an upper layer , characterized in that there is, below said upper layer and in said intermediate layer , exclusively at the rear zone of said multi-purpose safety shoe , an antifatigue insert made of a material having a resilience greater than 25% and less than 35% measured according to the measurement standard DIN 53512, said intermediate layer being made of polyurethane having a resilience greater than 35% and less than 45% measured according to the measurement standard DIN 53512.
A computer-implemented method that is executed by a playback device which is a server, the method comprising: receiving an audio data stream; determining, before the audio data stream is output by the playback device, whether the audio data stream encodes a key phrase; when the audio data stream encodes the key phrase, inserting multiple audio watermarks into the audio data stream to create a modified audio data stream, the multiple audio watermarks encoding data that indicates the audio data stream originated from a content provider; and providing the modified audio data stream to a speaker to cause the speaker to present the modified audio data stream. receiving an audio data stream; determining, before the audio data stream is output by the playback device, whether the audio data stream encodes a key phrase; when the audio data stream encodes the key phrase, inserting multiple audio watermarks into the audio data stream to create a modified audio data stream, the multiple audio watermarks encoding data that indicates the audio data stream originated from a content provider; and providing the modified audio data stream to a speaker to cause the speaker to present the modified audio data stream.
Firearm targeting device, comprising an image capture device set up to capture an image of a targeted target object (Z), a remote measurement device set up to determine a distance to the targeted target object (Z), an inertial measurement unit , an image reproduction device comprising a display and set up to display the image of the targeted target object (Z), and a control computer , characterised in that the inertial measurement unit is formed in such a way that it determines a position and attitude of the firearm target device , simultaneously with a distance measurement to a targeted object (Z) which is carried out by the distance measurement device , and an angle of inclination of the target device corresponding to a target elevation angle is determined, and an attitude angle of the firearm target device and thus of a firearm is stored in a storage device of the control computer , and wherein the control computer is formed in such a way that it calculates a projectile trajectory to the target object (Z) and the firing angle (β) thereof, as a function of the distance to the target object (Z) determined by the distance measurement device and of the determined angle of inclination and while taking into account weapon and projectile parameters, stored in the storage unit, of a firearm provided with the firearm targeting device .
Liraglutide for use in reducing the development of a major adverse cardiovascular event (MACE) in a human subject who has type 2 diabetes and cardiovascular disease, comprising administering liraglutide in a therapeutically effective amount to a subject in need thereof, and wherein said MACE is cardiovascular death, non-fatal myocardial infarction, or non-fatal stroke.
Use of a method for generating a load estimation model to control a pressing position of a rotary drum , wherein the load estimation model indicates a relation between a pressing position of a tire with respect to the rotary drum and a load applied to the tire , in a tire uniformity testing apparatus which measures uniformity of the tire by measuring the load applied to the tire pressed against the rotary drum , the method comprising: holding information acquired by the measurement for each characteristic value of tires, in which uniformity has already been measured by the tire uniformity testing apparatus , the characteristic value comprising a brand of the tires, a usage of the tires, a diameter of the tires and a width of the tires; acquiring a nominal model used for generating the load estimation model from the information held in the holding, in accordance with the characteristic value of the tires by selecting a type of that one of the tires already been measured having the highest similarity with the tire which is determined on the basis of the shortest distance, in a parameter space defined by the diameter of the tires and the width of the tires, between a position representing the tire and positions representing the tires already been measured; and generating a load estimation model which indicates a relation between the pressing position of the tire and the load applied to the tire , on the basis of the acquired nominal model. holding information acquired by the measurement for each characteristic value of tires, in which uniformity has already been measured by the tire uniformity testing apparatus , the characteristic value comprising a brand of the tires, a usage of the tires, a diameter of the tires and a width of the tires; acquiring a nominal model used for generating the load estimation model from the information held in the holding, in accordance with the characteristic value of the tires by selecting a type of that one of the tires already been measured having the highest similarity with the tire which is determined on the basis of the shortest distance, in a parameter space defined by the diameter of the tires and the width of the tires, between a position representing the tire and positions representing the tires already been measured; and generating a load estimation model which indicates a relation between the pressing position of the tire and the load applied to the tire , on the basis of the acquired nominal model.
A packaged aerosol foaming skin cleanser, comprising: a) a multiphase skin cleansing composition, comprising a structured surfactant phase and a benefit phase, wherein the structured surfactant phase comprises a branched structured surfactant, and the benefit phase comprises a hydrophobic benefit agent; wherein the multiphase cleansing composition is shear thinning and has a viscosity of 8 Pa.s (8,000 cps) to 80 Pa.s (80,000 cps) at 25°C as assessed by the T-Bar Viscosity Method as disclosed herein; b) a low pressure foaming agent, wherein the low pressure foaming agent is a combination of isobutane and isopentane with 25 weight percent of the isobutane and 75 weight percent of the isopentane; and c) a package. a) a multiphase skin cleansing composition, comprising a structured surfactant phase and a benefit phase, wherein the structured surfactant phase comprises a branched structured surfactant, and the benefit phase comprises a hydrophobic benefit agent; wherein the multiphase cleansing composition is shear thinning and has a viscosity of 8 Pa.s (8,000 cps) to 80 Pa.s (80,000 cps) at 25°C as assessed by the T-Bar Viscosity Method as disclosed herein; b) a low pressure foaming agent, wherein the low pressure foaming agent is a combination of isobutane and isopentane with 25 weight percent of the isobutane and 75 weight percent of the isopentane; and c) a package.
Device in a liquid for damping and scattering hydrosound in the liquid, in particular water , by means of an envelope body enclosing a gas, wherein the device can be flowed through by the liquid and has a plurality of envelope bodies each enclosing a gas, which are spaced apart from one another and are each surrounded by the liquid , wherein the device further has a carrier element and a mass body , wherein the envelope bodies are arranged at a distance from one another on the carrier element and the envelope bodies can be arranged at a distance from one another radially, axially and in the circumferential direction with respect to a body emitting a hydrosound, characterised in that the envelope bodies are filled with the gas and a soft, foam-like, open-pored and/or closed-pored material, and the carrier element and the envelope bodies are produced in one piece from a thin, elastic tube material, the envelope bodies of the same and/or different sizes being delimited by constrictions or welded webs of the tube material.
An imaging system , comprising: a first illuminator that irradiates a subject (SP, TG) with light whose intensity varies over time; and a first imaging device that comprises a first imaging cell having a variable sensitivity, and a first sensitivity control line electrically connected to the first imaging cell, wherein the first imaging cell comprises a photoelectron conversion area that receives the light from the subject to generate a signal charge, and a signal detection circuit that detects the signal charge, during an exposure period from a reset of the first imaging cell until a readout of the signal charge accumulated in the first imaging cell by exposure, the first sensitivity control line supplies to the first imaging cell a first sensitivity control signal having a periodic waveform expressed by a first function that takes only positive values by adding a first constant to one basis from among bases of a system of functions constituting an orthogonal system; characterized in that the photoelectron conversion area includes: - a first electrode ; - a translucent second electrode connected to the first sensitivity control line; and - a photoelectric conversion layer disposed between the first electrode and the second electrode. a first illuminator that irradiates a subject (SP, TG) with light whose intensity varies over time; and a first imaging device that comprises a first imaging cell having a variable sensitivity, and a first sensitivity control line electrically connected to the first imaging cell, wherein the first imaging cell comprises a photoelectron conversion area that receives the light from the subject to generate a signal charge, and a signal detection circuit that detects the signal charge, during an exposure period from a reset of the first imaging cell until a readout of the signal charge accumulated in the first imaging cell by exposure, the first sensitivity control line supplies to the first imaging cell a first sensitivity control signal having a periodic waveform expressed by a first function that takes only positive values by adding a first constant to one basis from among bases of a system of functions constituting an orthogonal system; characterized in that the photoelectron conversion area includes: - a first electrode ; - a translucent second electrode connected to the first sensitivity control line; and - a photoelectric conversion layer disposed between the first electrode and the second electrode. - a first electrode ; - a translucent second electrode connected to the first sensitivity control line; and - a photoelectric conversion layer disposed between the first electrode and the second electrode.
A rigid cardboard foldable display unit comprising: - a rear wall having two side edges , and two side walls respectively hingedly mounted to said two side edges and each having a free edge opposite to said side edges, said two side walls being adapted to be carried facing each other; - at least one bearing element including on the one hand a posterior edge hingedly mounted to said rear wall and an opposite anterior edge extending between the free edges of said two facing side walls, and on the other hand an intermediate part extending from said posterior edge to said anterior edge to be able to form a receiving shelf; characterised in that said anterior edge is hinged to said free edges , whereas said intermediate part is hingedly mounted to said anterior edge; and in that said two side walls are adapted to be respectively folded in two one towards the other along a medium fold line parallel to the side edge of said rear wall , whereas said intermediate part folds in two along a transverse fold line substantially perpendicular to the median fold lines to carry said intermediate part and said two side walls respectively folded in two against said rear wall . - a rear wall having two side edges , and two side walls respectively hingedly mounted to said two side edges and each having a free edge opposite to said side edges, said two side walls being adapted to be carried facing each other; - at least one bearing element including on the one hand a posterior edge hingedly mounted to said rear wall and an opposite anterior edge extending between the free edges of said two facing side walls, and on the other hand an intermediate part extending from said posterior edge to said anterior edge to be able to form a receiving shelf; characterised in that said anterior edge is hinged to said free edges , whereas said intermediate part is hingedly mounted to said anterior edge; and in that said two side walls are adapted to be respectively folded in two one towards the other along a medium fold line parallel to the side edge of said rear wall , whereas said intermediate part folds in two along a transverse fold line substantially perpendicular to the median fold lines to carry said intermediate part and said two side walls respectively folded in two against said rear wall .
A system for protecting an integrated circuit (IC) device from attacks, the IC device comprising a substrate having a front surface and a back surface , the IC device further comprising a front side part arranged above the front surface of the substrate and comprising stacked layers, at least one of said layers comprising a data layer comprising wire carrying data, the front side part having a front surface , wherein the system comprises an internal shield arranged into the substrate, said internal shield comprising a mesh of lines arranged in empty areas of the one or more layers in which the internal shield is arranged, the internal shield forming a structure that has a repeated routing pattern comprising rectilinear lines, the routing of the internal shield being configured to fit said empty areas in said substrate, the system further comprising a verification circuit configured to check integrity of a routing portion of the internal shield, said verification circuit being arranged in the vicinity of sensitive components of the device or interleaved with sensitive components of the IC device, said verification circuit being configured to propagate input data inside said routing portion of internal shield and check the integrity of said input data at the output of said routing portion of the internal shield, wherein the verification unit comprises a computation unit for computing a target value to be sent through said routing portion of the internal shield and a comparison unit to check if a condition is satisfied between an output value received at the output of said routing portion and said input data, said verification circuit being implemented in the form of a dummy computation circuitry, by filling low-density placement areas of the front-side part with said dummy computation circuitry the frequency of the verification circuit depending on a system clock, the input data being generated by a random number generator or being derived from a random seed, and wherein said computation unit is configured to implement an operation to compute said target value, said operation being selected in the group consisting of an arithmetic operation, a ciphering operation, or a Cyclic Redundancy Check (CRC) computations.