mhurhangee/patent-ind-claim-en huggingface dataset:
Connector for coupling several wall elements, such as a wall panel, in particular an insulating panel, to one another, by means of which chambers, in particular cooling chambers, can be constructed, - having a coupling , which has a mount for a latching hook , and a latching hook that can be pivoted out of a rest position into an engagement position and can be moved into a latching position, - having a bracket , which has a latch bar resting in a mount , wherein the latching hook in its latching position engages behind the latch bar , - having a housing of coupling or bracket , which has a housing passage opening , which the latching hook passes through during its pivoting movement from the rest position into the engagement position, wherein - the housing is made up of a first housing half and a second housing half , characterised in that - the housing passage opening for the passage of the latching hook is closed by a covering wall which is formed integrally in a firmly bonded manner from at least one of the housing halves in order to prevent the foam material penetrating the housing in the event of bracket or coupling foaming into an insulation panel. - having a coupling , which has a mount for a latching hook , and a latching hook that can be pivoted out of a rest position into an engagement position and can be moved into a latching position, - having a bracket , which has a latch bar resting in a mount , wherein the latching hook in its latching position engages behind the latch bar , - having a housing of coupling or bracket , which has a housing passage opening , which the latching hook passes through during its pivoting movement from the rest position into the engagement position, wherein - the housing is made up of a first housing half and a second housing half , - the housing passage opening for the passage of the latching hook is closed by a covering wall which is formed integrally in a firmly bonded manner from at least one of the housing halves in order to prevent the foam material penetrating the housing in the event of bracket or coupling foaming into an insulation panel.
A measuring device , comprising: a voltage measurer configured to measure a voltage from a node (ND) on a wire connected to a battery management system (BMS); and a controller configured to receive the measured voltage signal from the voltage measurer to derive a voltage value, to count the number of times the voltage value reaches a reference voltage during a measuring period, and to determine a state of the BMS as one of a normal state of a first mode, a normal state of a second mode, and an abnormal state based on the number of times. a voltage measurer configured to measure a voltage from a node (ND) on a wire connected to a battery management system (BMS); and a controller configured to receive the measured voltage signal from the voltage measurer to derive a voltage value, to count the number of times the voltage value reaches a reference voltage during a measuring period, and to determine a state of the BMS as one of a normal state of a first mode, a normal state of a second mode, and an abnormal state based on the number of times.
A drug delivery device comprising: - a housing extending along a main axis, - a drug expelling mechanism, - a torsion spring adapted to power the drug expelling mechanism, the torsion spring comprising a first spring end arranged stationarily with respect to the housing and a second spring end capable of rotation about the main axis, - a rotatable shaft extending along the main axis, the rotatable shaft having a non-self-locking thread and being axially fixed with respect to the housing , - a spring end retainer to which the second spring end is attached, the spring end retainer being rotationally fixed relative to the rotatable shaft , - a nut member engaged with the non-self-locking thread , the nut member being axially movable by translation relative to the housing to thereby travel the non-self-locking thread between a first position in which the torsion spring is in a relaxed state and a second position in which the torsion spring is in a strained state, and - an input structure operable to strain the torsion spring , the input structure being axially movable by translation relative to the housing and including an interface portion which is accessible for operation from an exterior of the housing , the nut member being axially fixed with respect to the input structure , whereby the rotatable shaft rotates in response to a translational motion of the interface portion , wherein the spring end retainer forms part of the rotatable shaft . - a housing extending along a main axis, - a drug expelling mechanism, - a torsion spring adapted to power the drug expelling mechanism, the torsion spring comprising a first spring end arranged stationarily with respect to the housing and a second spring end capable of rotation about the main axis, - a rotatable shaft extending along the main axis, the rotatable shaft having a non-self-locking thread and being axially fixed with respect to the housing , - a spring end retainer to which the second spring end is attached, the spring end retainer being rotationally fixed relative to the rotatable shaft , - a nut member engaged with the non-self-locking thread , the nut member being axially movable by translation relative to the housing to thereby travel the non-self-locking thread between a first position in which the torsion spring is in a relaxed state and a second position in which the torsion spring is in a strained state, and - an input structure operable to strain the torsion spring , the input structure being axially movable by translation relative to the housing and including an interface portion which is accessible for operation from an exterior of the housing , the nut member being axially fixed with respect to the input structure , whereby the rotatable shaft rotates in response to a translational motion of the interface portion ,
A system for detecting a moving anatomic feature during a treatment sequence, the system comprising: a first imaging system for acquiring a first image of the anatomic feature and at least a portion of a second imaging system prior to the treatment sequence; and a controller in communication with the first and second imaging systems, the controller being configured to: (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation. a first imaging system for acquiring a first image of the anatomic feature and at least a portion of a second imaging system prior to the treatment sequence; and a controller in communication with the first and second imaging systems, the controller being configured to: (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation. (a) prior to the treatment sequence, process the first image to compute a shortest distance between the anatomic feature and the at least a portion of the second imaging system; and (b) during the treatment sequence, (i) measure the shortest distance between the anatomic feature and the at least a portion of the second imaging system, (ii) compare the measured shortest distance to the computed shortest distance obtained in step (a) to determine a deviation therefrom, and (iii) determine movement of the anatomic feature based on the deviation.
Method for producing and/or connecting a stairwell with an integrated lift shaft on or in an existing building , in particular in or on a residential building, preferably for barrier-free connection of the building to the stairwell , wherein at least a portion of an existing façade is opened, comprising the following method steps: - erecting stairwell outer walls of at least the lowest floor of the stairwell and fitting a stairwell frame to or on the stairwell outer walls , - erecting lift shaft walls of at least the lowest floor of the stairwell and fitting a lift shaft frame to or on the lift shaft walls , - installing at least one staircase element and where applicable at least one floor element between the stairwell outer walls and the lift shaft walls in such a manner that the staircase element or the staircase elements extend(s) around the lift shaft , and - wherein the lift shaft frame and the stairwell frame are connected to each other by means of at least one connection element , characterised in that - an existing stairwell is disassembled in such a manner that existing flights of stairs and existing quarterpace landings are completely disassembled, but existing storey ceiling landings remain, - first securing elements are fitted to the stairwell outer walls and/or to the stairwell frame and to an existing storey ceiling landing which is located at the same height, and - at the height of the existing storey ceiling landing at least a second securing element is fitted to existing stairwell walls. - erecting stairwell outer walls of at least the lowest floor of the stairwell and fitting a stairwell frame to or on the stairwell outer walls , - erecting lift shaft walls of at least the lowest floor of the stairwell and fitting a lift shaft frame to or on the lift shaft walls , - installing at least one staircase element and where applicable at least one floor element between the stairwell outer walls and the lift shaft walls in such a manner that the staircase element or the staircase elements extend(s) around the lift shaft , and - wherein the lift shaft frame and the stairwell frame are connected to each other by means of at least one connection element , characterised in that - an existing stairwell is disassembled in such a manner that existing flights of stairs and existing quarterpace landings are completely disassembled, but existing storey ceiling landings remain, - first securing elements are fitted to the stairwell outer walls and/or to the stairwell frame and to an existing storey ceiling landing which is located at the same height, and - at the height of the existing storey ceiling landing at least a second securing element is fitted to existing stairwell walls.
A method for producing an equol- and ornithine-containing fermented soybean hypocotyl material comprising the step of adding arginine to soybean hypocotyls and then performing fermentation by a microorganism having an equol-producing ability and ornithine-producing ability by utilizing at least one daidzein compound selected from the group consisting of daidzein glycosides, daidzein, dihydrodaidzein, and arginine.
An article comprising a film wherein the film comprises semicrystalline polylactic acid polymer; polyvinyl acetate polymer having a Tg of at least 25°C; plasticizer; and a layer of adhesive disposed on the film, wherein the film composition does not exhibit plasticizer migration, as determined by placing 0.2 grams of the film composition in a closed scintillation vial, aging at 80°C for 24 hours, and thereafter inspecting the sample surface, wherein samples having a dry surface are considered to pass and samples having a wet or oily surface are considered to fail; wherein the film has a Tg less than 25°C; and wherein the Tg of the polyvinyl acetate polymer and the film is determined in accordance with the method described in the description under the section entitled "DSC-Differential Scanning Calorimetry", the Tg referring to the midpoint temperature of the second heating scan.
Use of an aqueous solution of acid free glyoxal for the fixation of tissues, wherein the glyoxal solution has a concentration by weight of 2%.
An apparatus for deriving a submatrix G̃ -1 , which is used to remove at least one interfered stream from a plurality of streams transmitted in a multiple input multiple output, MIMO, system, the apparatus being configured to: receive , by N receive antennas, the plurality of streams transmitted from N transmit antennas; generate an NxN-matrix G , wherein G is a covariance matrix of a channel matrix H , wherein the channel matrix H corresponds to a physical channel between the N transmit antennas and the N receive antennas, and N represents a number of the plurality of streams; and perform: - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G ; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p ; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab , wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1 ; wherein G p = G ̃ b c T d , and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃ . receive , by N receive antennas, the plurality of streams transmitted from N transmit antennas; generate an NxN-matrix G , wherein G is a covariance matrix of a channel matrix H , wherein the channel matrix H corresponds to a physical channel between the N transmit antennas and the N receive antennas, and N represents a number of the plurality of streams; and perform: - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G ; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p ; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab , wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1 ; wherein G p = G ̃ b c T d , and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃ . - step 1: selecting an N-elements-column and an N-elements-row of the NxN-matrix G ; - step 2: rearranging the selected column to the rightest column and the selected row to the lowest row of matrix G so as to generate a NxN-matrix G p ; - step 3: calculating the submatrix by G ̃ − 1 = A − AbcA d − 1 + c T Ab , wherein the parameters (N-1)x(N-1)-submatrix A, b, d, c are obtained from the G p and G p − 1 ; wherein G p = G ̃ b c T d , and wherein A is an (N-1)x(N-1) submatrix, wherein b and c are vectors of length (N-1), wherein d is a scalar, and wherein G p − 1 = A b ̃ c ̃ T d ̃ .
A process for the preparation of 1-(1,3-benzodioxol-5-yl)-1-propanone comprising the step of reacting 3,4-methylendioxybenzene with propionic anhydride in the presence of a bulk or supported catalyst, being said catalyst selected from the group of sulphonated cross-linked polystyrene-divinylbenzene resins, sulphonated cross-linked polystyrene-divinylbenzene resins partially exchanged with iron, zinc or gallium, perfluorinated sulphonic resins, and perfluorinated sulphonic resins partially exchanged with iron, zinc or gallium, wherein said catalyst has an average particle size from 1 μm to 300 μm, preferably from 1 μm to 180 μm, more preferably from 1 μm to 100 μm as measured with DLS (Dynamic light scattering) or a granulometer.
A measurement unit comprising: a case having a substantially pillar shape; an antenna unit that includes an antenna , the antenna being provided on the case and configured to communicate with an IC tag ; and a sensor provided in the case , wherein the antenna unit is provided in a vicinity of a first end face as one end of the case ; the sensor is provided inside the case and a back side of the case with respect to the antenna unit , and when viewed along a center axis (ax2) of the case , the antenna unit overlaps with the sensor characterized in that the case has a first opening that opens to the first end face ; the antenna unit has a substantially plate-like shape, and a wiring pattern as the antenna is formed on one surface of the antenna unit ; and the antenna unit is provided in the first opening such that the antenna is exposed from an opening of the first opening . a case having a substantially pillar shape; an antenna unit that includes an antenna , the antenna being provided on the case and configured to communicate with an IC tag ; and a sensor provided in the case , wherein the antenna unit is provided in a vicinity of a first end face as one end of the case ; the sensor is provided inside the case and a back side of the case with respect to the antenna unit , and when viewed along a center axis (ax2) of the case , the antenna unit overlaps with the sensor characterized in that the case has a first opening that opens to the first end face ; the antenna unit has a substantially plate-like shape, and a wiring pattern as the antenna is formed on one surface of the antenna unit ; and the antenna unit is provided in the first opening such that the antenna is exposed from an opening of the first opening .
A microfluidic device, comprising: a first layer defining a first cavity ; a first channel arranged to provide fluid entry to the first cavity ; a second layer defining a second cavity ; a second channel arranged to provide fluid entry to the second cavity ; and at least one separating material providing fluid separation between the first cavity and the second cavity , wherein compression of the first and second layers relative to one another causes sealing of the first channel and the second channel resulting in obstruction of the first cavity and the second cavity from further fluid entry, wherein manipulation of the at least one separating material causes removal of the fluid separation allowing for fluid communication between the first cavity and second cavity , wherein compression of the first and second layers relative to one another causes substantial filling of the first and second channels with a sealing material, and wherein the at least one separating material comprises the sealing material. a first layer defining a first cavity ; a first channel arranged to provide fluid entry to the first cavity ; a second layer defining a second cavity ; a second channel arranged to provide fluid entry to the second cavity ; and at least one separating material providing fluid separation between the first cavity and the second cavity , wherein compression of the first and second layers relative to one another causes sealing of the first channel and the second channel resulting in obstruction of the first cavity and the second cavity from further fluid entry, wherein manipulation of the at least one separating material causes removal of the fluid separation allowing for fluid communication between the first cavity and second cavity , wherein compression of the first and second layers relative to one another causes substantial filling of the first and second channels with a sealing material, and wherein the at least one separating material comprises the sealing material.
Shoe (10; 100; 300; 500), in particular a running shoe, comprising: a. an upper (110; 310; 410; 510); and b. a sole unit (120; 320; 420; 520), wherein c. the upper is attached to the sole unit such that in a midfoot region there is a gap (130; 330; 430) between a lower side of the upper and a top side of the sole unit, characterized in that d. the upper comprises a knitted material, and in that e. the sole unit comprises particles of expanded material, in particular, particles of expanded thermoplastic polyurethane, eTPU, and/or of expanded polyetherblockamide, ePEBA, and/or of expanded polyamide, ePA. a. an upper (110; 310; 410; 510); and b. a sole unit (120; 320; 420; 520), wherein c. the upper is attached to the sole unit such that in a midfoot region there is a gap (130; 330; 430) between a lower side of the upper and a top side of the sole unit, characterized in that d. the upper comprises a knitted material, and in that e. the sole unit comprises particles of expanded material, in particular, particles of expanded thermoplastic polyurethane, eTPU, and/or of expanded polyetherblockamide, ePEBA, and/or of expanded polyamide, ePA.
A photosensitive sensor comprising multiple elementary sensors butted together , each elementary sensor comprising a matrix of pixels (P;Q) organized in rows, the pixels of each row being connected to conductors of multiple types (Col, Sel, Vdd, VRst, Rst), including column conductors (Col) which are connected to read circuits (L) of the sensor, characterised in that it comprises, connected to each of the column conductors (Col), a group of components that is separate from the conductor under consideration, the group of components forming a matching impedance of the conductor (Col) under consideration, in that in each elementary sensor , the impedances have the same value and in that the impedances have different impedance values for different elementary sensors so as to balance the link impedances between the various read circuits (L) and the corresponding column conductors (Col) for the various elementary sensors.
Cooking appliance device, in particular hob device, with a plurality of inverters which are provided to operate in each case at least one inductor, and with a control unit , which is provided to operate at least one part of the inverter in at least one operating state collectively and at least within a first time frame (T a ) continuously, wherein the control unit is provided to divide the first time frame (T a ) into a first number (M) of time intervals (t a , t b , t c ), which is greater by at least one than a second number (N) of inverters to be operated at the same time, wherein the control unit is provided to divide the first time frame (T a ) into the first number (M) of time intervals (t a , t b , t c ) such that consecutive time intervals (t a , t b , t c ) within the first time frame (T a ) differ at least in one operating parameter, characterised in that the control unit is provided to operate the at least one part of the inverter at least in one operating state collectively and at least within a second time frame (T b ) continuously and the control unit is provided to divide the second time frame (T b ) into a third number of time intervals (t a , t b , t c ), which is greater by at least one than a fourth number of inverters to be operated at the same time, wherein the control unit is provided to divide the second time frame (T b ) into the third number of time intervals (t a , t b , t c ) such that consecutive time intervals (t a , t b , t c ) within the second time frame (T b ) differ at least in one operating parameter.