mhurhangee/patent-ind-claim-en huggingface dataset:
Structural element for installation in joints extending especially in a vertical plane in buildings, especially in the region of balconies, loggias or walkways, for sound-insulating, force-transmitting connection of building parts (A, B) adjoining on both sides, wherein the structural element consists of a separating plate extending at least partly along the joint (C) and of reinforcing elements that pass through the latter, the separating plate having in the region of the joint (C) at least one opening for at least a first reinforcing element , wherein the separating plate has in the region of the opening a trough-shaped shell body which, starting from the separating plate, projects into the first (B) of the two adjoining building parts, wherein the first structural element , starting from the second (A) of the two building parts, passes through the opening and projects into the shell body where it co-operates with an insulating element serving for sound-insulated force transmission between the two building parts (A, B), the first reinforcing element having a supporting element for the insulating element and forming together with the supporting element a bracket-like bearing projection for the second (A) of the two building parts and wherein that second building part extends by means of the bearing projection into the shell body and thus projects into the first building part (B) for sound-insulating, force-transmitting connection of the two building parts (A, B), and wherein the first reinforcing element is configured as a transverse force element by its being arranged, on passing through the opening , at an angle of inclination with respect to the separating plate and at an angle of inclination with respect to a horizontal plane (E H ) perpendicular to the separating plate, characterised in that the first reinforcing element is also configured as a shear force element by its being arranged, in the region of the separating plate , at an angle of inclination with respect to a vertical plane (E V ) perpendicular to the separating plate; and a second reinforcing element , starting from the second (A) of the two building parts, passes through the separating plate and projects in a horizontal direction into the shell body where it co-operates with the supporting element for the insulating element . characterised in that the first reinforcing element is also configured as a shear force element by its being arranged, in the region of the separating plate , at an angle of inclination with respect to a vertical plane (E V ) perpendicular to the separating plate; and a second reinforcing element , starting from the second (A) of the two building parts, passes through the separating plate and projects in a horizontal direction into the shell body where it co-operates with the supporting element for the insulating element .
A method of making a vacuum insulated glass, VIG, window unit, the method comprising: having a VIG unit subassembly, the VIG unit subassembly including first and second glass substrates , a plurality of spacers helping to maintain the first and second glass substrates in substantially parallel spaced apart relation to one another, and an edge seal , the first glass substrate having a hole formed therein, the hole being usable to evacuate a cavity defined between the first and second glass substrates ; the method is characterised in forming a first multi-layer thin film coating on a portion of the first substrate that is around and/or on an inner diameter of the hole , the first multi-layer thin film coating including at least one layer comprising a metal; providing a solid solder alloy pre-form in and/or around the hole , the solid solder alloy pre-form being in direct physical contact with at least a part of the first multi-layer thin film coating and comprising metal; providing a seal member over and/or in the hole so that at least part of the seal member is in physical contact with the solid solder alloy pre-form; and forming an hermetic hole seal by reactively reflowing the solid solder alloy pre-form to cause material from the first multi-layer thin film coating to diffuse into the solder alloy material and vice versa, in making the VIG unit. having a VIG unit subassembly, the VIG unit subassembly including first and second glass substrates , a plurality of spacers helping to maintain the first and second glass substrates in substantially parallel spaced apart relation to one another, and an edge seal , the first glass substrate having a hole formed therein, the hole being usable to evacuate a cavity defined between the first and second glass substrates ; the method is characterised in forming a first multi-layer thin film coating on a portion of the first substrate that is around and/or on an inner diameter of the hole , the first multi-layer thin film coating including at least one layer comprising a metal; providing a solid solder alloy pre-form in and/or around the hole , the solid solder alloy pre-form being in direct physical contact with at least a part of the first multi-layer thin film coating and comprising metal; providing a seal member over and/or in the hole so that at least part of the seal member is in physical contact with the solid solder alloy pre-form; and forming an hermetic hole seal by reactively reflowing the solid solder alloy pre-form to cause material from the first multi-layer thin film coating to diffuse into the solder alloy material and vice versa, in making the VIG unit.
An imaging probe , the probe comprising: an elongate section having a first end and a second end, the second end forming a probe tip capable of intra-lumen imaging, the probe tip comprising a cover having a first surface and a second surface, the cover comprising a polymer and a plurality of back-scattering particles for controlled optical backscattering disposed therein for providing a reference point for calibration of at least one imaging system parameter in an imaging system comprising the imaging probe, the cover allowing transmission of substantially undistorted imaging light, the elongate section being adapted to transmit light reflected by the back-scattering particles to the first end of the elongate section. an elongate section having a first end and a second end, the second end forming a probe tip capable of intra-lumen imaging, the probe tip comprising a cover having a first surface and a second surface, the cover comprising a polymer and a plurality of back-scattering particles for controlled optical backscattering disposed therein for providing a reference point for calibration of at least one imaging system parameter in an imaging system comprising the imaging probe, the cover allowing transmission of substantially undistorted imaging light, the elongate section being adapted to transmit light reflected by the back-scattering particles to the first end of the elongate section.
A method of wireless communication, comprising: determining within a transceiver at least first and second synchronization signal blocks that are each configurable for transmission using at least one of a first waveform and a second waveform; selecting the first waveform or the second waveform for transmission of the first synchronization signal block; selecting the other of the first waveform or the second waveform for transmission of the second synchronization signal block; transmitting the first and second synchronization signal blocks using the respectively selected first or second waveform; and indicating through a transmission characteristic of the transmission of the first or second synchronization signal block which of the first or second waveform is being selectively used for transmission of at least a portion of the first or second synchronization signal block over time, wherein one of the first and second waveforms includes an orthogonal frequency division multiplexed (OFDM) waveform, and the other includes a low peak to average power ratio (PAPR) waveform having a PAPR less than the OFDM waveform. determining within a transceiver at least first and second synchronization signal blocks that are each configurable for transmission using at least one of a first waveform and a second waveform; selecting the first waveform or the second waveform for transmission of the first synchronization signal block; selecting the other of the first waveform or the second waveform for transmission of the second synchronization signal block; transmitting the first and second synchronization signal blocks using the respectively selected first or second waveform; and indicating through a transmission characteristic of the transmission of the first or second synchronization signal block which of the first or second waveform is being selectively used for transmission of at least a portion of the first or second synchronization signal block over time, wherein one of the first and second waveforms includes an orthogonal frequency division multiplexed (OFDM) waveform, and the other includes a low peak to average power ratio (PAPR) waveform having a PAPR less than the OFDM waveform.
A medical device for applying pressure to a joint segment of a human body comprising at least three bearing units intended to be attached to a holder , each bearing unit comprising: - an extendable arm ; - a movement-measuring means , adapted to measure the movement of said extendable arm ; - an attachment means , adapted to attach said bearing unit to said holder ; said medical device being characterised in that each bearing unit further comprises: - a force-measuring means attached to said extendable arm , adapted to measure a force exerted on said extendable arm ; and, - a bearing element attached to the distal portion of said extendable arm , adapted to be in contact with a part of the human body and making it possible to apply said force measured by said force-measuring means to said part of the human body. - an extendable arm ; - a movement-measuring means , adapted to measure the movement of said extendable arm ; - an attachment means , adapted to attach said bearing unit to said holder ; - a force-measuring means attached to said extendable arm , adapted to measure a force exerted on said extendable arm ; and, - a bearing element attached to the distal portion of said extendable arm , adapted to be in contact with a part of the human body and making it possible to apply said force measured by said force-measuring means to said part of the human body.
A method of monitoring the condition of one or more cells within an electrochemical energy storage device, the method comprising: operating the electrochemical device at a current comprising a predefined time-varying component for a first period of time; sensing voltage across each of the plurality of cells during the first time period; sensing a measure of heat generation within each cell during the first time period; calculating an estimate of the open circuit potential of the electrochemical storage device from the predefined time varying component of the current and the sensed voltage during the first time period; calculating, for each cell, a function which relates a ratio of the time derivatives of the sensed measure of heat generation and voltage to the open circuit potential; and determining a measure of the state of health of each cell based on the calculated function. operating the electrochemical device at a current comprising a predefined time-varying component for a first period of time; sensing voltage across each of the plurality of cells during the first time period; sensing a measure of heat generation within each cell during the first time period; calculating an estimate of the open circuit potential of the electrochemical storage device from the predefined time varying component of the current and the sensed voltage during the first time period; calculating, for each cell, a function which relates a ratio of the time derivatives of the sensed measure of heat generation and voltage to the open circuit potential; and determining a measure of the state of health of each cell based on the calculated function.
A photochromic optical article which is formed by bonding together a pair of optical article plates each comprising a glass material with an adhesive layer that includes a photochromic compound (A) and a urethane resin (B), wherein the urethane resin (B) is a resin obtained by polymerizing: a polyiso(thio)cyanate compound (B1) having two or more iso(thio)cyanate groups within a molecule; a poly(thi)ol compound (B2) having, within a molecule, two or more active hydrogen-containing groups selected from a hydroxy group and a thiol group; and a mono(thi)ol compound (B3) having, within a molecule, one active hydrogen-containing group selected from a hydroxy group and a thiol group. a polyiso(thio)cyanate compound (B1) having two or more iso(thio)cyanate groups within a molecule; a poly(thi)ol compound (B2) having, within a molecule, two or more active hydrogen-containing groups selected from a hydroxy group and a thiol group; and a mono(thi)ol compound (B3) having, within a molecule, one active hydrogen-containing group selected from a hydroxy group and a thiol group.
Dielectric composition having a perovskite crystal structure and containing at least Bi, Na, Sr and Ti, whereby said dielectric composition comprises at least one selected from among La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Yb, Ba, Ca, Mg and Zn; characterised in that said dielectric composition comprises single phase particles which do not have a core-shell structure and specific particles, the specific particles having a core-shell structure that has at least one core portion comprising SrTiO 3 ; and 0.20 ≤ α ≤ 0.70, where α is the ratio of the number of specific particles with respect to the total number of particles contained in the dielectric composition.
A method for detecting the presence of a target nucleobase subunit in a nucleic acid polymer, comprising: (a) selectively modifying a target nucleobase subunit of a pre-analyte nucleic acid polymer to produce a nucleic acid polymer analyte with an abasic site, wherein selectively modifying the target nucleobase subunit comprises contacting the target nucleobase subunit with an agent that selectively creates a structural change in the target nucleobase to produce a modified target subunit and subsequently contacting the pre-analyte nucleic acid polymer with an error correction enzyme to convert the modified subunit to an abasic site; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore, wherein the abasic site results in an ion current that is measurably different than an ion current that would have been observed for an unmodified target nucleobase subunit in the nucleic acid polymer analyte; and (d) detecting the abasic site in the nucleic acid polymer analyte based on the measurably different ion current, wherein presence of the abasic site indicates the presence of the target nucleobase in the pre-analyte nucleic acid polymer. (a) selectively modifying a target nucleobase subunit of a pre-analyte nucleic acid polymer to produce a nucleic acid polymer analyte with an abasic site, wherein selectively modifying the target nucleobase subunit comprises contacting the target nucleobase subunit with an agent that selectively creates a structural change in the target nucleobase to produce a modified target subunit and subsequently contacting the pre-analyte nucleic acid polymer with an error correction enzyme to convert the modified subunit to an abasic site; (b) translocating the nucleic acid polymer analyte comprising the abasic site from a first conductive liquid medium to a second conductive liquid medium through a nanopore, wherein the nanopore provides liquid communication between the first conductive liquid medium and the second conductive liquid medium; (c) measuring an ion current between the first conductive liquid medium and the second conductive liquid medium as the nucleic acid polymer analyte passes through the nanopore, wherein the abasic site results in an ion current that is measurably different than an ion current that would have been observed for an unmodified target nucleobase subunit in the nucleic acid polymer analyte; and (d) detecting the abasic site in the nucleic acid polymer analyte based on the measurably different ion current, wherein presence of the abasic site indicates the presence of the target nucleobase in the pre-analyte nucleic acid polymer.
Cable bushing into a control housing surrounding a printed circuit board , wherein the cable bushing comprises a bushing housing comprising a locating surface , and fastening means for fastening the bushing housing to the control housing , and retainers for at least two cables which are to be electrically connected to the printed circuit board , and a shielding plate embodying a shielding surface for contacting a shielding on the control housing side, characterized in that the shielding surface is formed by a shielding plate which comprises at least one contact web protruding from the shielding surface by punching and bending and being exposed at a circumferential surface of the bushing housing for forming the contact surface (126.1) which is facing away from the locating surface at the outer circumference of the bushing housing to be connected to a shielding externally placed against the bushing housing .
A compound for an organic optoelectronic device, characterized in that the compound is represented by Chemical Formula 1: wherein, in Chemical Formula 1, X 1 to X 6 are independently N or CR a , at least two of X 1 to X 3 are N, at least two of X 4 to X 6 are N, Y is O or S, Ar 1 to Ar 3 are independently a substituted or unsubstituted C6 to C30 aryl group, R a and R 1 to R 3 are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, or a combination thereof, n1 and n2 are independently one of integers of 0 to 2, and the "substituted" refers to replacement of at least one hydrogen by deuterium, a C1 to C20 alkyl group, a C6 to C30 aryl group, or a C2 to C30 heteroaryl group. X 1 to X 6 are independently N or CR a , at least two of X 1 to X 3 are N, at least two of X 4 to X 6 are N, Y is O or S, Ar 1 to Ar 3 are independently a substituted or unsubstituted C6 to C30 aryl group, R a and R 1 to R 3 are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, or a combination thereof, n1 and n2 are independently one of integers of 0 to 2, and the "substituted" refers to replacement of at least one hydrogen by deuterium, a C1 to C20 alkyl group, a C6 to C30 aryl group, or a C2 to C30 heteroaryl group.
A method for setting a link aggregation group (21-2), the method being applied to a controlling bridge , the controlling bridge and a port extender forming an extended bridge , wherein the method comprises: setting the link aggregation group (21-2); associating an aggregation port (LAG 21-2) of the link aggregation group with a plurality of extended ports (21-2-1, 21-2-2) of the port extender, wherein the plurality of extended ports are connected to a same terminal ; assigning an aggregation port identifier to the aggregation port; associating an extended port identifier for each of the plurality of extended ports and a cascaded port (23-1) connecting to the port extender, with the aggregation port, so that an ingress port through which an upstream packet received by any of the plurality of extended ports enters the extended bridge is identified as the aggregation port; and associating the aggregation port with the aggregation port identifier and the cascaded port so as to determine to add the aggregation port identifier into a downstream unicast packet wherein an egress port for exiting the extended bridge is the aggregated port and so as to determine to send the downstream unicast packet added with the aggregation port identifier via the cascaded port. setting the link aggregation group (21-2); associating an aggregation port (LAG 21-2) of the link aggregation group with a plurality of extended ports (21-2-1, 21-2-2) of the port extender, wherein the plurality of extended ports are connected to a same terminal ; assigning an aggregation port identifier to the aggregation port; associating an extended port identifier for each of the plurality of extended ports and a cascaded port (23-1) connecting to the port extender, with the aggregation port, so that an ingress port through which an upstream packet received by any of the plurality of extended ports enters the extended bridge is identified as the aggregation port; and associating the aggregation port with the aggregation port identifier and the cascaded port so as to determine to add the aggregation port identifier into a downstream unicast packet wherein an egress port for exiting the extended bridge is the aggregated port and so as to determine to send the downstream unicast packet added with the aggregation port identifier via the cascaded port.
A display device (DD), comprising: a display module (DM) that is foldable about a first folding axis (FX1) and a second folding axis (FX2), the first folding axis (FX1) and the second folding axis (FX2) being spaced apart from each other along a first direction (DR1) and extended in a second direction (DR2) crossing the first direction; and a digitizer module (DTM) below the display module (DM), wherein the digitizer module (DTM) comprises: a plurality of first electrodes (ET1) extended in the first direction (DR1) and arranged along the second direction (DR2); and a plurality of second electrodes (ET2) extended in the second direction (DR2) and arranged along the first direction (DR1), the second electrodes (ET2) being insulated from the first electrodes (ET1), and wherein the plurality of first electrodes (ET1) comprises: a plurality of first sub-electrodes (SET1) overlapped with the first folding axis (FX1); and a plurality of second sub-electrodes (SET2) overlapped with the second folding axis (FX2), the second sub-electrodes (SET2) being at a different layer from the first sub-electrodes (SET1). a display module (DM) that is foldable about a first folding axis (FX1) and a second folding axis (FX2), the first folding axis (FX1) and the second folding axis (FX2) being spaced apart from each other along a first direction (DR1) and extended in a second direction (DR2) crossing the first direction; and a digitizer module (DTM) below the display module (DM), wherein the digitizer module (DTM) comprises: a plurality of first electrodes (ET1) extended in the first direction (DR1) and arranged along the second direction (DR2); and a plurality of second electrodes (ET2) extended in the second direction (DR2) and arranged along the first direction (DR1), the second electrodes (ET2) being insulated from the first electrodes (ET1), and wherein the plurality of first electrodes (ET1) comprises: a plurality of first sub-electrodes (SET1) overlapped with the first folding axis (FX1); and a plurality of second sub-electrodes (SET2) overlapped with the second folding axis (FX2), the second sub-electrodes (SET2) being at a different layer from the first sub-electrodes (SET1).