mhurhangee/patent-ind-claim-en huggingface dataset:
A valve for one-way transfer of air from vacuum storage bags, comprising a body , a mainly flat diaphragm made of a flexible material, and a holder for securing the diaphragm to the body ; wherein the body comprises an air passage , the diaphragm has a first position where said air passage is covered by a central portion of the diaphragm such that air flow through the air passage is blocked, and a second position where the central portion of the diaphragm is reversibly moved away from the air passage thus allowing air flow through the air passage , characterized in that the diaphragm is secured between the body and the holder , at three or more distinct edge portions of said diaphragm . the body comprises an air passage , the diaphragm has a first position where said air passage is covered by a central portion of the diaphragm such that air flow through the air passage is blocked, and a second position where the central portion of the diaphragm is reversibly moved away from the air passage thus allowing air flow through the air passage ,
A ventilation system intended to extract air from the inside of a building and to discharge it towards the outside thereof, said system comprising a joinery of the type including - an opening preferably including a transparent or translucent surface , - a frame formed by one or more uprights and/or crosspieces (4a, b), said frame including a through air passage extending from at least one air inlet area , closed by a grid, located on the inner face of the frame, to an air outlet area located on the outer face of the frame, the air inlet area corresponding to the place where the through air passage leads to the inner face of the extraction device, that is to say the face of the system which is in contact with the inside of the building, and - at least one air extraction axial turbine equipped with an electric motor, located in the air outlet area or in the through air passage, at a certain distance from the air inlet area , characterised by the fact that the rotation axis of the air extraction axial turbine, while being comprised in a plane substantially perpendicular to the plane of the window, is parallel to the plane of the air inlet area and does not cut the air inlet area , and by the fact that the minimum distance between the rotation centre of the air extraction axial turbine and the air inlet area is at least equal to the diameter of the air extraction axial turbine. - an opening preferably including a transparent or translucent surface , - a frame formed by one or more uprights and/or crosspieces (4a, b), said frame including a through air passage extending from at least one air inlet area , closed by a grid, located on the inner face of the frame, to an air outlet area located on the outer face of the frame, the air inlet area corresponding to the place where the through air passage leads to the inner face of the extraction device, that is to say the face of the system which is in contact with the inside of the building, and - at least one air extraction axial turbine equipped with an electric motor, located in the air outlet area or in the through air passage, at a certain distance from the air inlet area ,
A test circuit which is provided to a semiconductor device (SEM0) including a plurality of semiconductor chips and a test clock terminal (TC1) which is provided to a first semiconductor chip among the plurality of semiconductor chips , the test clock terminal (TC1) being configured to receive a test clock (CK10) that is used when testing the semiconductor device (SEM0), the test circuit being characterized by : a plurality of first clock paths (PTc1, PTc2) disposed between the first semiconductor chip and a second semiconductor chip among the plurality of semiconductor chips , and through which the test clock (CK10) that is received by the test clock terminal (TC1) is transmitted from the first semiconductor chip to the second semiconductor chip; a test unit which is provided to the second semiconductor chip , and is configured to test the second semiconductor chip by using the test clock (CK10) that is transmitted to the second semiconductor chip ; a first clock detection unit which is provided to the second semiconductor chip , and is configured to detect the test clock that is received through each of the plurality of first clock paths (PTc1, PTc2); and a first clock path selection unit which is provided to the second semiconductor chip , and is configured to select a first clock path (PTc1, PTc2), through which the test clock detected by the first clock detection unit is transmitted, among the plurality of first clock paths as a first test clock path, and supply the test clock (CK10), which is transmitted through the first test clock path, to the test unit when the second semiconductor chip is tested. a plurality of first clock paths (PTc1, PTc2) disposed between the first semiconductor chip and a second semiconductor chip among the plurality of semiconductor chips , and through which the test clock (CK10) that is received by the test clock terminal (TC1) is transmitted from the first semiconductor chip to the second semiconductor chip; a test unit which is provided to the second semiconductor chip , and is configured to test the second semiconductor chip by using the test clock (CK10) that is transmitted to the second semiconductor chip ; a first clock detection unit which is provided to the second semiconductor chip , and is configured to detect the test clock that is received through each of the plurality of first clock paths (PTc1, PTc2); and a first clock path selection unit which is provided to the second semiconductor chip , and is configured to select a first clock path (PTc1, PTc2), through which the test clock detected by the first clock detection unit is transmitted, among the plurality of first clock paths as a first test clock path, and supply the test clock (CK10), which is transmitted through the first test clock path, to the test unit when the second semiconductor chip is tested.
A device for dispensing self-adhesives stickers disposed on a strip arranged as a roller , this device comprising a case having a bottom and a side wall , the bottom and the side wall defining a housing able to receive, around a centre axis substantially perpendicular to the bottom , said roller , the side wall comprising an outlet port for the strip of the roller , this outlet port defining a first part and a second part of the side wall on either side of this outlet port , this device being characterised in that it further comprises, - a first external strip guide for guiding the strip of the roller , this first external strip guide being disposed on the external face of the first part at the edge of the outlet port ; - a second external strip guide for guiding the strip of the roller , this second external strip guide being disposed on the external face of the second part at the edge of the outlet port , the first external strip guide and the second external strip guide facing each other on either side of the outlet port . - a first external strip guide for guiding the strip of the roller , this first external strip guide being disposed on the external face of the first part at the edge of the outlet port ; - a second external strip guide for guiding the strip of the roller , this second external strip guide being disposed on the external face of the second part at the edge of the outlet port , the first external strip guide and the second external strip guide facing each other on either side of the outlet port .
A method of a User Equipment, in the following also referred to as UE, configured with logical channel based prioritization, comprising: determining prioritization between a first uplink, in the following also referred to as UL, grant and a first scheduling request based on a priority of a first logical channel associated with triggering the first scheduling request if one or more first conditions are not met, wherein a first UL resource associated with the first UL grant and a first scheduling request transmission occasion associated with the first scheduling request overlap in time domain ; and determining to prioritize the first UL grant over the first scheduling request without considering the priority of the first logical channel associated with triggering the first scheduling request if the one or more first conditions are met, characterized in that the one or more first conditions comprise: if the first UL grant is addressed to a Temporary Cell Radio Network Temporary Identifier, in the following also referred to as C-RNTI, of the UE and/or if the first UL grant is an UL grant for performing a retransmission. determining prioritization between a first uplink, in the following also referred to as UL, grant and a first scheduling request based on a priority of a first logical channel associated with triggering the first scheduling request if one or more first conditions are not met, wherein a first UL resource associated with the first UL grant and a first scheduling request transmission occasion associated with the first scheduling request overlap in time domain ; and determining to prioritize the first UL grant over the first scheduling request without considering the priority of the first logical channel associated with triggering the first scheduling request if the one or more first conditions are met, characterized in that the one or more first conditions comprise: if the first UL grant is addressed to a Temporary Cell Radio Network Temporary Identifier, in the following also referred to as C-RNTI, of the UE and/or if the first UL grant is an UL grant for performing a retransmission.
A method, comprising the steps of: obtaining a block of data samples comprised of a plurality of samples; and providing a processed block of data from a crest factor reduction block . characterized by obtaining an extended block comprised of at least two pre-cursor blocks (510-1, 510-2), said block of data samples, and one post-cursor block , wherein said pre-cursor blocks (510-1, 510-2) precede said block of data samples and are populated with input data from the end of a prior data block , and the post-cursor block succeeds said block of data samples and is populated with input data from the beginning of a subsequent data block of data samples; and applying said extended block of data to the crest factor reduction block , wherein said crest factor reduction block cancels peaks only in said block of data samples and in the pre-cursor blocks (510-1) which immediately precedes said data block. obtaining a block of data samples comprised of a plurality of samples; and providing a processed block of data from a crest factor reduction block . characterized by obtaining an extended block comprised of at least two pre-cursor blocks (510-1, 510-2), said block of data samples, and one post-cursor block , wherein said pre-cursor blocks (510-1, 510-2) precede said block of data samples and are populated with input data from the end of a prior data block , and the post-cursor block succeeds said block of data samples and is populated with input data from the beginning of a subsequent data block of data samples; and applying said extended block of data to the crest factor reduction block , wherein said crest factor reduction block cancels peaks only in said block of data samples and in the pre-cursor blocks (510-1) which immediately precedes said data block.
An internal resistance calculation device that calculates an internal resistance of a secondary battery , comprising: a voltage obtaining portion that obtains a voltage of the secondary battery; a current obtaining portion that obtains a current of the secondary battery; and characterized by : a switching determination portion that determines the presence or absence of switching between charging and discharging of the secondary battery based on the current obtained by the current obtaining portion; an identification portion that identifies a waiting time based on a boundary frequency range in which a diffusion impedance arising from a process of diffusion of a predetermined ion contributes to an impedance of the secondary battery in an impedance spectrum of the secondary battery; and a resistance calculation portion that calculates the internal resistance of the secondary battery based on the voltage obtained by the voltage obtaining portion and the current obtained by the current obtaining portion after the waiting time identified by the identification portion when the switching determination portion determines that switching between charging and discharging is present. a voltage obtaining portion that obtains a voltage of the secondary battery; a current obtaining portion that obtains a current of the secondary battery; and characterized by : a switching determination portion that determines the presence or absence of switching between charging and discharging of the secondary battery based on the current obtained by the current obtaining portion; an identification portion that identifies a waiting time based on a boundary frequency range in which a diffusion impedance arising from a process of diffusion of a predetermined ion contributes to an impedance of the secondary battery in an impedance spectrum of the secondary battery; and a resistance calculation portion that calculates the internal resistance of the secondary battery based on the voltage obtained by the voltage obtaining portion and the current obtained by the current obtaining portion after the waiting time identified by the identification portion when the switching determination portion determines that switching between charging and discharging is present. a switching determination portion that determines the presence or absence of switching between charging and discharging of the secondary battery based on the current obtained by the current obtaining portion; an identification portion that identifies a waiting time based on a boundary frequency range in which a diffusion impedance arising from a process of diffusion of a predetermined ion contributes to an impedance of the secondary battery in an impedance spectrum of the secondary battery; and a resistance calculation portion that calculates the internal resistance of the secondary battery based on the voltage obtained by the voltage obtaining portion and the current obtained by the current obtaining portion after the waiting time identified by the identification portion when the switching determination portion determines that switching between charging and discharging is present.
Method for adjusting the rate of a timepiece comprising the following steps: - fitting inside a timepiece case without a back cover or without a whole of the back cover of a movement provided with a balance/balance spring resonator e; - measuring the rate of the timepiece; - determining the correction value to be applied to the balance inertia to obtain a desired rate; - altering by adding material (15 1 , 15 2 , 15 3 , 15 4 , 25 2 , 25 4 ) to the balance , balance inertia according to said correction value, the movement being fitted into the case without the back cover or without the whole of the back cover. - fitting inside a timepiece case without a back cover or without a whole of the back cover of a movement provided with a balance/balance spring resonator e; - measuring the rate of the timepiece; - determining the correction value to be applied to the balance inertia to obtain a desired rate; - altering by adding material (15 1 , 15 2 , 15 3 , 15 4 , 25 2 , 25 4 ) to the balance , balance inertia according to said correction value, the movement being fitted into the case without the back cover or without the whole of the back cover.
A method for generating a high-availability inverse synthetic aperture radar (ISAR) image, the method comprising: forming a range resolved data cube over subapertures, fine range bins, and coarse Doppler bins, the range resolved data cube comprising a plurality of first data vectors in the subaperture direction; forming a plurality of quadratic phase vectors from a set of quadratic phase errors, the set of quadratic phase errors being determined using an estimated worst-case line-of-sighl acceleration in the scene is formed by a spatially-varying autofocus (SVAF) block; forming a plurality of product vectors from the first data vectors and the plurality of quadratic phase vectors; performing a fast Fourier transform (FFT) of each of the plurality of product vectors to form a plurality of two-dimensional arrays; forming a plurality of sparse two-dimensional arrays by calculating a coherency metric for each element of each of the plurality of two-dimensional arrays; and stacking the plurality of sparse two-dimensional arrays to form a sparse 3-dimensional (3-D) image. forming a range resolved data cube over subapertures, fine range bins, and coarse Doppler bins, the range resolved data cube comprising a plurality of first data vectors in the subaperture direction; forming a plurality of quadratic phase vectors from a set of quadratic phase errors, the set of quadratic phase errors being determined using an estimated worst-case line-of-sighl acceleration in the scene is formed by a spatially-varying autofocus (SVAF) block; forming a plurality of product vectors from the first data vectors and the plurality of quadratic phase vectors; performing a fast Fourier transform (FFT) of each of the plurality of product vectors to form a plurality of two-dimensional arrays; forming a plurality of sparse two-dimensional arrays by calculating a coherency metric for each element of each of the plurality of two-dimensional arrays; and forming a plurality of quadratic phase vectors from a set of quadratic phase errors, the set of quadratic phase errors being determined using an estimated worst-case line-of-sighl acceleration in the scene is formed by a spatially-varying autofocus (SVAF) block; forming a plurality of product vectors from the first data vectors and the plurality of quadratic phase vectors; performing a fast Fourier transform (FFT) of each of the plurality of product vectors to form a plurality of two-dimensional arrays; forming a plurality of sparse two-dimensional arrays by calculating a coherency metric for each element of each of the plurality of two-dimensional arrays; and stacking the plurality of sparse two-dimensional arrays to form a sparse 3-dimensional (3-D) image.
A climbing aid for a machine having a continuous track, comprising a base body, which is formed of profile elements connected to one another on a lap joint , wherein the profile elements have a girder section , on which a climbing aid profile element is arranged, which protrudes beyond the girder section , and wherein the profile elements of the base body are connected to one another in a positively locking manner in the region of the lap joint , characterized in that in order to form the positively locking connection of the profile elements , at least one of these profile elements has a recess on the front side and the profile elements are telescoped in the region of this recess .
A power door operating system for an aircraft comprising a linear actuator , the linear actuator comprising: a screw shaft comprising a screw thread and having a longitudinal axis (A); a nut movable along the screw shaft from a retracted position to an extended position; characterized in that it further comprises a plurality of rollers movable with the nut , each comprising a cylindrical surface configured to roll along a respective flank of the screw thread , such that rotation of the screw shaft causes the rollers to roll along the respective flank so that the nut translates in an axial direction along the screw shaft , wherein the screw thread comprises one or more detents configured to lock the nut in one or more axial positions, and the rollers rotate about a roller axis , wherein the roller axis coincides with a flank angle of the respective flank . a screw shaft comprising a screw thread and having a longitudinal axis (A); a nut movable along the screw shaft from a retracted position to an extended position; characterized in that it further comprises a plurality of rollers movable with the nut , each comprising a cylindrical surface configured to roll along a respective flank of the screw thread , such that rotation of the screw shaft causes the rollers to roll along the respective flank so that the nut translates in an axial direction along the screw shaft ,
A self-purging delivery apparatus for a multi-component composition, the delivery apparatus comprising: an applicator comprising two or three interior channels each for separately conveying a liquid component of the multi-component system and an outlet path which is fluidly connected to each of the interior channels to facilitate mixing of the components therein; a dual- or three-barrel syringe , wherein each barrel defines a reservoir, and each barrel is coupled at one end to one of the two or three interior channels of the applicator , the syringe comprising a piston in each barrel , wherein the syringe pistons are joined by a clip , such that the syringe pistons are moveable simultaneously at an application pressure P(A) to cause each liquid component to flow from each reservoir, respectively, to the interior channels and the outlet path ; a purging assembly comprising a source of liquid flushing agent fluidly coupled to the applicator's outlet path via a purging path to convey liquid flushing agent into the applicator under a constantly applied pressure P(P); and a pressure-sensitive valve assembly operatively coupled to selectively close the purging path when the application pressure P(A) is applied. an applicator comprising two or three interior channels each for separately conveying a liquid component of the multi-component system and an outlet path which is fluidly connected to each of the interior channels to facilitate mixing of the components therein; a dual- or three-barrel syringe , wherein each barrel defines a reservoir, and each barrel is coupled at one end to one of the two or three interior channels of the applicator , the syringe comprising a piston in each barrel , wherein the syringe pistons are joined by a clip , such that the syringe pistons are moveable simultaneously at an application pressure P(A) to cause each liquid component to flow from each reservoir, respectively, to the interior channels and the outlet path ; a purging assembly comprising a source of liquid flushing agent fluidly coupled to the applicator's outlet path via a purging path to convey liquid flushing agent into the applicator under a constantly applied pressure P(P); and a pressure-sensitive valve assembly operatively coupled to selectively close the purging path when the application pressure P(A) is applied.