mhurhangee/ep-ind-claims huggingface dataset:
A leaf spring comprising: a plurality of leaves (1, 1a, 1b); and a space maintaining member (4, 5) being provided between the leaves (1, 1a, 1b), wherein the space maintaining member (4, 5) placed between the leaves (1, 1a, 1b) of the leaf spring comprises: a body portion (4h, 5h); and a sealing portion (4d, 5d) provided at an end part of the body portion (4h, 5h) and configured to come into close contact with the adjacent leaves (1, 1a, 1b) to establish sealing from an external space, wherein the body portion (4h, 5h) and the sealing portion (4d, 5d) are formed integrally with each other, characterized in that the end part of the body portion (4h, 5h) is fixed to the sealing portion (4d, 5d) by way of engagement, or engagement and adhesion. a plurality of leaves (1, 1a, 1b); and a space maintaining member (4, 5) being provided between the leaves (1, 1a, 1b), wherein the space maintaining member (4, 5) placed between the leaves (1, 1a, 1b) of the leaf spring comprises: a body portion (4h, 5h); and a sealing portion (4d, 5d) provided at an end part of the body portion (4h, 5h) and configured to come into close contact with the adjacent leaves (1, 1a, 1b) to establish sealing from an external space, wherein the body portion (4h, 5h) and the sealing portion (4d, 5d) are formed integrally with each other, characterized in that the end part of the body portion (4h, 5h) is fixed to the sealing portion (4d, 5d) by way of engagement, or engagement and adhesion. a body portion (4h, 5h); and a sealing portion (4d, 5d) provided at an end part of the body portion (4h, 5h) and configured to come into close contact with the adjacent leaves (1, 1a, 1b) to establish sealing from an external space, wherein the body portion (4h, 5h) and the sealing portion (4d, 5d) are formed integrally with each other, characterized in that the end part of the body portion (4h, 5h) is fixed to the sealing portion (4d, 5d) by way of engagement, or engagement and adhesion.
A structural component (1, 1', 1"), comprising at least two organo-sheet pieces (10A-10E) which at least sectionally lie one on top of the other and which each include a fiber layer, characterized in that at least in the fiber layers of the organo-sheet pieces (10A-10E) at least one pair of mutually aligned holes is formed, at which the organo-sheet pieces (10A-10E) are positively connected to each other, namely by a form fit of the organo-sheet pieces with each other, wherein the positive connection is formed between the fiber layers of the organo-sheet pieces (10A-10E).
A hardcoat comprising: a binder; in a range from 15 to 95 volume % nanoparticles, wherein at least a portion of the nanoparticles are functionalized by free radical reactive silane and cyano group containing silane, wherein 10 to 40 volume % of the nanoparticles are the nanoparticles having an average particle diameter in a range from 2 nm to 30 nm and 20 to 60 volume % of the nanoparticles have an average particle diameter in a range from 50 nm to 100 nm, based on the total volume of the hardcoat. a binder; in a range from 15 to 95 volume % nanoparticles, wherein at least a portion of the nanoparticles are functionalized by free radical reactive silane and cyano group containing silane,
A method for collecting optical data for use in time resolved optical imaging of a turbid media, the method comprising: tuning an excitation wavelength of a pulsed light beam of a pulsed light source according to an excitation spectrum of a fluorescent marker of interest; directionally propagating the pulsed light beam to illuminate a plurality of predetermined illumination points in a region of interest of the turbid media; collecting light emanating from a plurality of predetermined collection points in the region of interest, the collected light including a fluorescence signal from the fluorescent marker; filtering the collected light to allow the fluorescence signal to propagate through a filter while rejecting photons outside a fluorescence emission spectrum of the fluorescent marker and measuring the filtered light at a detector to produce a time resolved optical signal for one or more illumination point/collection point configurations, characterized by tuning the excitation wavelength based on a rejection of the excitation wavelength by the filter by feeding back information regarding a level of rejection by the filter from the detector to the pulsed light source. tuning an excitation wavelength of a pulsed light beam of a pulsed light source according to an excitation spectrum of a fluorescent marker of interest; directionally propagating the pulsed light beam to illuminate a plurality of predetermined illumination points in a region of interest of the turbid media; collecting light emanating from a plurality of predetermined collection points in the region of interest, the collected light including a fluorescence signal from the fluorescent marker; filtering the collected light to allow the fluorescence signal to propagate through a filter while rejecting photons outside a fluorescence emission spectrum of the fluorescent marker and measuring the filtered light at a detector to produce a time resolved optical signal for one or more illumination point/collection point configurations,
A method of converting incoming three-color pixel data of a first format for rendering onto a display; said display comprising a plurality of a sub-pixel group; said sub-pixel group further comprising eight sub-pixels; wherein each said sub-pixel is one of a first color sub-pixel, a second color sub-pixel and a third color sub-pixel; wherein said sub-pixel group further comprises four sub-pixels of said first color, two sub-pixels of said second color and two sub-pixels of said third color; wherein further said sub-pixels of said second color and said sub-pixels of said third color are alternatingly arranged along two substantially orthogonal directions forming substantially a checkerboard-like pattern wherein said first color sub-pixels are interspersed within the checkerboard-like pattern wherein said first color sub-pixels are interspersed within the checkerboard-like pattern of the second and third color sub-pixels; the method characterised in that: determining an input image sample area for each data point of said incoming three-color pixel data; determining a resample area (426, 422, 424) for each color sub-pixel in the display; forming a set of coefficients for each resample area (426, 422, 424), wherein the set of coefficients comprises one or more than one coefficient and wherein each coefficient comprises a fraction whose denominator is a function of the resample area (426, 422, 424) and whose numerator is a function of an area of each input image sample area that may partially overlap said resample area (426, 422, 424); multiplying the incoming three-color pixel data for each input image sample area by its respective coefficient from the set of coefficients resulting in a product; and adding for each resample area the products obtained from the set of coefficients related to the respective resample area to obtain a luminance value for each resample area (426, 422, 424). determining an input image sample area for each data point of said incoming three-color pixel data; determining a resample area (426, 422, 424) for each color sub-pixel in the display; forming a set of coefficients for each resample area (426, 422, 424), wherein the set of coefficients comprises one or more than one coefficient and wherein each coefficient comprises a fraction whose denominator is a function of the resample area (426, 422, 424) and whose numerator is a function of an area of each input image sample area that may partially overlap said resample area (426, 422, 424); multiplying the incoming three-color pixel data for each input image sample area by its respective coefficient from the set of coefficients resulting in a product; and adding for each resample area the products obtained from the set of coefficients related to the respective resample area to obtain a luminance value for each resample area (426, 422, 424).
An inhibitor of glycolysis for use in the treatment of a disease characterized by renal and/or liver cysts formation, wherein said inhibitor is 2-deoxyglucose, wherein said disease is autosomal dominant polycystic kidney disease (ADPKD) or polycystic liver disease.
A tool for manipulating a target, the tool comprising: a housing defining a chamber, the chamber having at least one outlet; a propellant source located within the chamber; an ignition mechanism for igniting the propellant source; and a control mechanism; wherein, upon ignition of the propellant source, the propellant source is operable to deflagrate, creating at least one stream of combustion products, the chamber directing the/each stream of combustion products through the/each outlet, towards the target to be manipulated, at least one parameter of the/each stream of combustion products being changeable by the control mechanism; and wherein the at least one parameter which is changed by the control mechanism is the content or structure of the/each stream of combustion products. a housing defining a chamber, the chamber having at least one outlet; a propellant source located within the chamber; an ignition mechanism for igniting the propellant source; and a control mechanism; wherein, upon ignition of the propellant source, the propellant source is operable to deflagrate, creating at least one stream of combustion products, the chamber directing the/each stream of combustion products through the/each outlet, towards the target to be manipulated, at least one parameter of the/each stream of combustion products being changeable by the control mechanism; and wherein the at least one parameter which is changed by the control mechanism is the content or structure of the/each stream of combustion products.
A computer implemented method for scoring in real time at least two neural signals of a subject with respect to a reference state characterized by k=1...K reference covariance matrices, the method comprising the following steps: i. obtaining the at least two neural signals from the subject; ii. filtering the at least two neural signals in at least two frequency bands; iii. concatenating the at least two filtered signals; iv. computing a spatiofrequential covariance matrix of said at least two filtered neural signals; v. computing Riemannian distances d k between said spatiofrequential covariance matrix and k=1...K reference covariance matrices; characterised in that the method further comprises: vi. computing of a real time score s continuous, bounded between two predetermined values, and based on at least one of the distances d k computed in step v; wherein the score s is further function of at least one distance d r obtained as follows: - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices. i. obtaining the at least two neural signals from the subject; ii. filtering the at least two neural signals in at least two frequency bands; iii. concatenating the at least two filtered signals; iv. computing a spatiofrequential covariance matrix of said at least two filtered neural signals; v. computing Riemannian distances d k between said spatiofrequential covariance matrix and k=1...K reference covariance matrices; vi. computing of a real time score s continuous, bounded between two predetermined values, and based on at least one of the distances d k computed in step v; wherein the score s is further function of at least one distance d r obtained as follows: - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices. - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices.
An office pod enclosing a soundproof workspace inside of the pod, comprising: a front load-bearing frame comprising a door, the front load-bearing frame constituting an outermost encircling element of the front wall; a rear load-bearing frame constituting an outermost encircling element of the rear wall; and a skin layer at both left-hand side and a right-hand side of the pod forming an exterior surface of the pod, said skin layer attached in between the front load-bearing frame and the rear load-bearing frame so as to provide the front and rear load-bearing frames (210, 220) with cross-dimensional rigidity and providing lateral bracing for the front and rear load-bearing frames so maintain the rectangular shape of the pod, the skin layer comprising sound stopping material followed by a sound absorbing material layer; and wherein the pod further comprises a ceiling structure attached to the front load-bearing frame and to the rear load-bearing frame, wherein a chassis with cross-dimensional support is formed of said skin layers and said load-bearing frames. a front load-bearing frame comprising a door, the front load-bearing frame constituting an outermost encircling element of the front wall; a rear load-bearing frame constituting an outermost encircling element of the rear wall; and a skin layer at both left-hand side and a right-hand side of the pod forming an exterior surface of the pod, said skin layer attached in between the front load-bearing frame and the rear load-bearing frame so as to provide the front and rear load-bearing frames (210, 220) with cross-dimensional rigidity and providing lateral bracing for the front and rear load-bearing frames so maintain the rectangular shape of the pod, the skin layer comprising sound stopping material followed by a sound absorbing material layer; and wherein the pod further comprises a ceiling structure attached to the front load-bearing frame and to the rear load-bearing frame, wherein a chassis with cross-dimensional support is formed of said skin layers and said load-bearing frames.
A method of Uplink Control Information, UCI, transmission performed at a mobile handset, comprising: receiving information indicating a value of a UCI mapping bit via radio signaling from a mobile communication node, wherein the UCI mapping bit is used with carrier aggregation; and in response to a determination that a physical uplink shared channel, PUSCH, is to be transmitted during a current subframe on an Uplink Secondary cell, UL Scell, and not on an Uplink Primary cell, UL Pcell, transmitting UCI to the mobile communication node using a first mode of UCI transmission or a second mode of UCI transmission in accordance with the value of the UCI mapping bit; wherein transmitting the UCI using the first mode of UCI transmission comprises transmitting the UCI on the PUSCH, and wherein transmitting the UCI using the second mode of UCI transmission comprises transmitting the UCI on the UL Pcell using a physical uplink control channel, PUCCH, transmission scheme. receiving information indicating a value of a UCI mapping bit via radio signaling from a mobile communication node, wherein the UCI mapping bit is used with carrier aggregation; and in response to a determination that a physical uplink shared channel, PUSCH, is to be transmitted during a current subframe on an Uplink Secondary cell, UL Scell, and not on an Uplink Primary cell, UL Pcell, transmitting UCI to the mobile communication node using a first mode of UCI transmission or a second mode of UCI transmission in accordance with the value of the UCI mapping bit; wherein transmitting the UCI using the first mode of UCI transmission comprises transmitting the UCI on the PUSCH, and wherein transmitting the UCI using the second mode of UCI transmission comprises transmitting the UCI on the UL Pcell using a physical uplink control channel, PUCCH, transmission scheme.
A wheel assembly rotational position identifying apparatus, which is provided in a wheel assembly of a vehicle to identify a rotational position of the wheel assembly, the apparatus comprising: an acceleration detector, which is configured to detect an acceleration that changes in accordance with the rotational position of the wheel assembly; a control section, which is configured to identify the rotational position of the wheel assembly based on the acceleration detected by the acceleration detector; and a battery, which is a power source for the wheel assembly rotational position identifying apparatus, characterised in that the control section is configured to operate in a control mode that is a selected one of a normal mode, in which the rotational position of the wheel assembly is allowed to be identified, and a power saving mode, in which a power consumption associated with identification of the rotational position of the wheel assembly is smaller than that in the normal mode, the control section is configured to switch the control mode to the normal mode when an initiation condition is met in accordance with an input from outside, and the control section is configured to switch the control mode to the power saving mode when a termination condition is met in the normal mode. an acceleration detector, which is configured to detect an acceleration that changes in accordance with the rotational position of the wheel assembly; a control section, which is configured to identify the rotational position of the wheel assembly based on the acceleration detected by the acceleration detector; and a battery, which is a power source for the wheel assembly rotational position identifying apparatus, characterised in that the control section is configured to operate in a control mode that is a selected one of a normal mode, in which the rotational position of the wheel assembly is allowed to be identified, and a power saving mode, in which a power consumption associated with identification of the rotational position of the wheel assembly is smaller than that in the normal mode, the control section is configured to switch the control mode to the normal mode when an initiation condition is met in accordance with an input from outside, and the control section is configured to switch the control mode to the power saving mode when a termination condition is met in the normal mode.
Turbine fluid/speed meter, comprising a measurement chamber, a turbine body that is displaced axially in the measurement chamber as a function of the fluid flow rates, between a high position and a low position and having a rotation axis, a centering bearing for the rotation axis in the measurement chamber that has a longitudinal body with a longitudinal passage supporting and passed through by the rotation axis, the rotation axis pivoting by being held axially in the measurement chamber, by a first axial end stop in the high position and by a second axial end stop in the low position, characterized in that the centering bearing has, in the longitudinal passage, at least two cylindrical longitudinal support centering walls for the rotation axis, the rotation axis being arranged so as to come into contact, in the centering bearing, on a cylindrical longitudinal support centering wall in the high position, and on another cylindrical longitudinal support centering wall (15b, 15c), of different cross section, in the low position.
A method of coding a current field macroblock in a B-frame, comprising: obtaining a reference frame picture list including multiple reference frame pictures; determining a reference frame picture index of the multiple reference frame pictures in the reference frame picture list based on display order information for the multiple reference frame pictures, reference frame picture index numbers being allocated in a reverse order to reference frame pictures whose display order is lower than a display order of a current frame picture and remaining reference frame picture index numbers being allocated in a display order to reference frame pictures whose display order is higher than the display order of the current frame picture, wherein the current frame picture includes the current field macroblock; reordering the reference frame picture index allocated to each reference frame picture in the reference frame picture list; obtaining motion vector information for the current field macroblock; characterized by alternately allocating reference field picture indexes that are increased by one to reference field pictures, starting from a first reference field picture having a parity equal to a parity of the current field macroblock to a second reference field picture having a parity different from the parity of the current field macroblock, while starting from a reference field picture index value of "0" and sequentially visiting the multiple reference frame pictures according to the order of the reordered reference frame picture index, such that a reference field picture indicated by a reference field picture index has a parity equal to the parity of the current field macroblock when the reference field picture index is even, and the reference field picture indicated by the reference field picture index has a parity different from the parity of the current field macroblock when the reference field picture index is odd; and performing motion compensation for the current field macroblock in the B-frame by using the reference field picture indicated by the reference field picture index and the motion vector information for the current field macroblock. obtaining a reference frame picture list including multiple reference frame pictures; determining a reference frame picture index of the multiple reference frame pictures in the reference frame picture list based on display order information for the multiple reference frame pictures, reference frame picture index numbers being allocated in a reverse order to reference frame pictures whose display order is lower than a display order of a current frame picture and remaining reference frame picture index numbers being allocated in a display order to reference frame pictures whose display order is higher than the display order of the current frame picture, wherein the current frame picture includes the current field macroblock; reordering the reference frame picture index allocated to each reference frame picture in the reference frame picture list; obtaining motion vector information for the current field macroblock;
A vehicle operation support apparatus comprising: an indicator section for indicating an actual value (APOr, 26) of a parameter and a target value (APOt, 21) of the parameter for an operator to manipulate the parameter with reference to the target value (APOt, 21), wherein the parameter is manipulated by the operator for changing an engine output of a vehicle; characterized in that a change amount of an indication in the indicator section with respect to a unit change amount of the actual value (APOr, 26) of the parameter is smaller in a region close to the target value (APOt, 21) than in a region far from the target value (APOt, 21). an indicator section for indicating an actual value (APOr, 26) of a parameter and a target value (APOt, 21) of the parameter for an operator to manipulate the parameter with reference to the target value (APOt, 21), wherein the parameter is manipulated by the operator for changing an engine output of a vehicle; characterized in that a change amount of an indication in the indicator section with respect to a unit change amount of the actual value (APOr, 26) of the parameter is smaller in a region close to the target value (APOt, 21) than in a region far from the target value (APOt, 21).