mhurhangee/ep-ind-claims huggingface dataset:
A reduced-pressure closure system for applying a closing force proximate to a tissue, the reduced-pressure, deep-tissue closure system comprises: a contractible matrix (130, 200, 300, 400) being formed with a first plurality of apertures and having a first side (132, 202,302, 402) and a second, inward-facing side (134, 204, 304, 404), the second, inward-facing side (134, 204, 304, 404) being formed with a plurality of cells, each open cell having cell walls (140, 210. 312) and at least one intercellular aperture (142, 411) being formed in each open cell of the plurality of cells, the contractible matrix (130, 200, 300, 400) for disposing proximate to the tissue; and a reduced-pressure source fluidly coupled to the contractible matrix (130, 200, 300, 400) and operable to deliver reduced pressure to the contractible matrix (130, 200, 300, 400), characterised in that the contractible matrix (130, 200, 300, 400) is not formed of a foam or a hydrogel. a contractible matrix (130, 200, 300, 400) being formed with a first plurality of apertures and having a first side (132, 202,302, 402) and a second, inward-facing side (134, 204, 304, 404), the second, inward-facing side (134, 204, 304, 404) being formed with a plurality of cells, each open cell having cell walls (140, 210. 312) and at least one intercellular aperture (142, 411) being formed in each open cell of the plurality of cells, the contractible matrix (130, 200, 300, 400) for disposing proximate to the tissue; and a reduced-pressure source fluidly coupled to the contractible matrix (130, 200, 300, 400) and operable to deliver reduced pressure to the contractible matrix (130, 200, 300, 400), characterised in that the contractible matrix (130, 200, 300, 400) is not formed of a foam or a hydrogel.
A mobile communication system which provides a Multimedia Broadcast/Multicast Service, MBMS, service for delivering multicast data, the mobile communication system comprising a core network and a base station and a terminal, wherein the core network is configured to transmit, to the base station, an MBMS session start message that includes a Tunnel Endpoint Identifier, TEID, which is used for data transfer between the base station and the core network, wherein the TEID is included in information elements related to a transport layer; the base station is configured to receive the TEID and to transmit the multicast data to the terminal; the terminal is configured to receive the multicast data; and the mobile communication system is a Long Term Evolution, LTE, mobile communication system.
A swivel coupling for connecting a multi-piece restraint comprising: trapezoidally shaped first and second segments each having a short side, a long side, a first side and a second side, said first and second sides spanning between said short and long sides, respectively, wherein said long sides each have a first cylindrical portion, and the short side includes a second cylindrical portion that is orthogonal to the short side and has an orifice extending therethrough, and a connecting means for connecting said first and second segments by extending through said orifices to secure said first and second segments to form said swivel coupling; characterized in that said segments have multiple planar surfaces extending longitudinally along the length of said segments and one of said first and second segments includes a bar extending between said first side and said second side, parallel to said long side. trapezoidally shaped first and second segments each having a short side, a long side, a first side and a second side, said first and second sides spanning between said short and long sides, respectively, wherein said long sides each have a first cylindrical portion, and the short side includes a second cylindrical portion that is orthogonal to the short side and has an orifice extending therethrough, and a connecting means for connecting said first and second segments by extending through said orifices to secure said first and second segments to form said swivel coupling;
Computer-implemented method for local load management on charging stations for charging electric vehicles in a charging station system, the charging stations being connected to a common grid connection and being equipped with registers that can be read and/or written to by means of a computer for the local load management, the charging stations differing from one another in such a way that functionally identical registers that the charging stations contain are stored at different register addresses in the charging stations, wherein the method comprises the following steps: (a) ascertaining a register address of a register of one of the charging stations for a desired function of this charging station on the basis of a predefined association between the functionally identical registers and the various register addresses of the charging stations, (b) retrieving the ascertained register address, and (c) reading and/or writing to the register at the retrieved register address in order to perform the desired function of the charging station using the retrieved register address. (a) ascertaining a register address of a register of one of the charging stations for a desired function of this charging station on the basis of a predefined association between the functionally identical registers and the various register addresses of the charging stations, (b) retrieving the ascertained register address, and (c) reading and/or writing to the register at the retrieved register address in order to perform the desired function of the charging station using the retrieved register address.
System for dissipating regenerated electric energy produced by an electric actuator of an aircraft, the dissipating system comprising: - a resistor; - two switching arms (12, 13), each switching arm (12, 13) being connected in series with the resistor, the two switching arms (12, 13) being connected together in parallel, characterized in that each switching arm (12, 13) comprises two switches (Q1, Q2, Q3, Q4) connected to one another in series, each switch (Q1, Q2, Q3, Q4) comprising two terminals (B 11, B 12, B 21, B 22, B 31, B 32, B 41, B 42) and a control grid (G1, G2, G3, G4), each switch (Q1, Q2, Q3, Q4) being suitable for being controlled by controlling the potential applied to its control grid (G1, G2, G3, G4) thereof; the system for dissipating comprising measurement means (MM1, MM2, MM3, MM4) capable of measuring the voltage at the terminals (B 11, B 12, B 21, B 22, B 31, B 32, B 41, B 42) of each switch (Q1, Q2, Q3, Q4). - a resistor; - two switching arms (12, 13), each switching arm (12, 13) being connected in series with the resistor, the two switching arms (12, 13) being connected together in parallel,
A method for providing a secure execution environment for program code or data, comprising: offloading code or data from a host processor to a secure asset management unit (SAMU) in an encrypted format for authenticating and for maintaining confidentiality of the code or data; characterized in applying, on a condition that the sensitive data is intended for consumption external to the SAMU, standard advanced encryption standard encryption of the sensitive data, and on a condition that sensitive data is intended for consumption only within the SAMU, performing a modulated AES decryption on a memory read operation into an instruction cache or a data cache, and performing a modulated AES encryption on a memory write operation as lines of the instruction cache or the data cache are flushed, wherein the modulated AES encryption and the modulated AES decryption are modulated using scrambling in hardware before and after a standard AES process. offloading code or data from a host processor to a secure asset management unit (SAMU) in an encrypted format for authenticating and for maintaining confidentiality of the code or data;
A packaging structure, comprising: a first substrate, a first side of the first substrate comprising a power supply terminal (41,42); a second substrate; a metal extension layer (411, 421), extending from the power supply terminal (41, 42) to both ends of the first side of the first substrate; and, a packaging layer, disposed between the first substrate and the second substrate, covering the metal extension layer (411, 412), and fastening the first substrate and the second substrate; characterized in that the metal extension layer (411, 421) comprises a plurality of first via holes for stress relief, and in that a width of the metal extension layer (411,421) is same to a width of the packaging layer. a first substrate, a first side of the first substrate comprising a power supply terminal (41,42); a second substrate; a metal extension layer (411, 421), extending from the power supply terminal (41, 42) to both ends of the first side of the first substrate; and, a packaging layer, disposed between the first substrate and the second substrate, covering the metal extension layer (411, 412), and fastening the first substrate and the second substrate; characterized in that the metal extension layer (411, 421) comprises a plurality of first via holes for stress relief, and in that a width of the metal extension layer (411,421) is same to a width of the packaging layer.
A light source device comprising: a casing including one end surface, other end surface, and one side surface between the one end surface and the other end surface; a light emitting unit provided on a side of the one end surface in the casing; a heat radiating unit provided in the casing and thermally connected to the light emitting unit; an exhaust port formed at least in a region located in the one side surface and facing the heat radiating unit; an axial fan configured to be provided in the casing and supply cooling air to the heat radiating unit; and a shielding deflecting plate configured to be provided between the axial fan and the heat radiating unit and shield a part of the cooling air supplied from the axial fan and deflect a part of the cooling air to a direction away from the exhaust port, wherein the shielding deflecting plate is arranged to extend at an angle which is not parallel to an axial direction of the axial fan, and the shielding deflecting plate is arranged at the angle with which a direction of the cooling air toward the one end surface is deflected to a side of another side surface facing the one side surface, characterized in that the axial fan includes an impeller including a hub and a plurality of blades provided around the hub, and the shielding deflecting plate is arranged to cover the side of the exhaust port of the axial fan as viewed from an axial direction of the axial fan and has a width corresponding to a length from a base end to a front end of a blade. a casing including one end surface, other end surface, and one side surface between the one end surface and the other end surface; a light emitting unit provided on a side of the one end surface in the casing; a heat radiating unit provided in the casing and thermally connected to the light emitting unit; an exhaust port formed at least in a region located in the one side surface and facing the heat radiating unit; an axial fan configured to be provided in the casing and supply cooling air to the heat radiating unit; and a shielding deflecting plate configured to be provided between the axial fan and the heat radiating unit and shield a part of the cooling air supplied from the axial fan and deflect a part of the cooling air to a direction away from the exhaust port, wherein the shielding deflecting plate is arranged to extend at an angle which is not parallel to an axial direction of the axial fan, and the shielding deflecting plate is arranged at the angle with which a direction of the cooling air toward the one end surface is deflected to a side of another side surface facing the one side surface, characterized in that the axial fan includes an impeller including a hub and a plurality of blades provided around the hub, and the shielding deflecting plate is arranged to cover the side of the exhaust port of the axial fan as viewed from an axial direction of the axial fan and has a width corresponding to a length from a base end to a front end of a blade.
An analyzer for analyzing a composition of a sample, comprising: an x-ray illuminator arranged to illuminate the sample with x-rays; an x-ray spectrometer adapted to produce x-ray spectral data representative of fluorescence radiation emitted from the sample in response to the illuminating x-rays; an optical illuminator arranged to illuminate the sample with light; the analyzer being characterized by: a Raman spectrometer adapted to produce Raman spectral data that includes Stokes spectral data and anti-Stokes spectral data representative of Raman radiation emitted from the sample in response to the light; and a processor adapted to receive the x-ray spectral data and Raman spectral data and to determine if the Stokes spectral data is obscured by an interfering optical fluorescence signal and, when the Stokes spectral data is determined to be obscured, uses the anti-Stokes spectral data and not the Stokes spectral data, to identify the molecule and provide an analysis of a compound in the sample based on both. an x-ray illuminator arranged to illuminate the sample with x-rays; an x-ray spectrometer adapted to produce x-ray spectral data representative of fluorescence radiation emitted from the sample in response to the illuminating x-rays; an optical illuminator arranged to illuminate the sample with light; the analyzer being characterized by: a Raman spectrometer adapted to produce Raman spectral data that includes Stokes spectral data and anti-Stokes spectral data representative of Raman radiation emitted from the sample in response to the light; and a processor adapted to receive the x-ray spectral data and Raman spectral data and to determine if the Stokes spectral data is obscured by an interfering optical fluorescence signal and, when the Stokes spectral data is determined to be obscured, uses the anti-Stokes spectral data and not the Stokes spectral data, to identify the molecule and provide an analysis of a compound in the sample based on both.
An electrical connection pad structure for a display device, comprising: a first metal layer, a second metal layer and a third metal layer, the first metal layer and the second metal layer are connected with each other through a plurality of first contact holes located in a first insulating layer between the first metal layer and the second metal layer, the second metal layer and the third metal layer are connected with each other through a plurality of second contact holes located in a second insulating layer between the second metal layer and the third metal layer and the plurality of the first contact holes and the plurality of the second contact holes do not overlap each other, wherein the first metal layer and the plurality of first contact holes are not overlapped by the third metal layer. a first metal layer, a second metal layer and a third metal layer, the first metal layer and the second metal layer are connected with each other through a plurality of first contact holes located in a first insulating layer between the first metal layer and the second metal layer, the second metal layer and the third metal layer are connected with each other through a plurality of second contact holes located in a second insulating layer between the second metal layer and the third metal layer and the plurality of the first contact holes and the plurality of the second contact holes do not overlap each other, wherein the first metal layer and the plurality of first contact holes are not overlapped by the third metal layer.
Heat exchanger box comprising a body defining a housing suitable for accommodating a bundle of the heat exchanger, the said body having a contact edge intended to allow the attachment of a manifold (3, 4) of the heat exchanger, the said body comprising plates (14, 15, 16, 17) assembled to one another, at least one (14, 16) of the said plates, namely a stiffening plate, having one or more raised edges extending in a direction secant to the contact edge, characterized in that the said raised edge has a cutout at its end or ends provided in the vicinity of the corresponding contact edge or edges, the said cutout having a chamfered portion of which one of the ends merges with the contact edge in such a way that the said raised edge or edges are configured so as to allow the passage of a head of a tool at the said contact edge so as to allow the production of a weld seam between the box and the said manifold along the contact edge, at least at the said raised edge or edges.
Method for detecting systematic deviations (sA) during determination of a movement variable (v) of a ground-based, in particular rail-based, vehicle, - wherein, on the basis of a measurement value (n S1.t), associated with a time point (t), of at least one sensor, a value (v S1.t) of the movement variable (v) associated with the time point (t) is determined, characterised in that - dependent upon the value (v S1.t), associated with the time point (t), of the movement variable (v) and upon a statistical sensor accuracy value (σs_v S1.t) of the at least one sensor determined for this value (v S1.t), a test variable value (TG S1.t) associated with the time point (t) is formed and, in the course of a comparison, is compared with a specified test bound, in order to make an assumption (A1, A2, A3), dependent upon a comparison result obtained from the comparison, with regard to an existence of a systematic deviation (sA), - wherein the test variable value (TG S1.t) is formed for the time point (t) additionally as a function of an expected value (v*.t) of the movement variable (v), - wherein on the basis of a movement model applied to a previous system state (SZ.tp) of the vehicle, an expected system state (SZ*.t) of the vehicle is determined for the time point (t) and - on the basis of a transfer model applied to the expected system state (SZ*.t), the expected value (v*.t) of the movement variable (v) for the time point (t) is determined. - wherein, on the basis of a measurement value (n S1.t), associated with a time point (t), of at least one sensor, a value (v S1.t) of the movement variable (v) associated with the time point (t) is determined, characterised in that - dependent upon the value (v S1.t), associated with the time point (t), of the movement variable (v) and upon a statistical sensor accuracy value (σs_v S1.t) of the at least one sensor determined for this value (v S1.t), a test variable value (TG S1.t) associated with the time point (t) is formed and, in the course of a comparison, is compared with a specified test bound, in order to make an assumption (A1, A2, A3), dependent upon a comparison result obtained from the comparison, with regard to an existence of a systematic deviation (sA), - wherein the test variable value (TG S1.t) is formed for the time point (t) additionally as a function of an expected value (v*.t) of the movement variable (v), - wherein on the basis of a movement model applied to a previous system state (SZ.tp) of the vehicle, an expected system state (SZ*.t) of the vehicle is determined for the time point (t) and - on the basis of a transfer model applied to the expected system state (SZ*.t), the expected value (v*.t) of the movement variable (v) for the time point (t) is determined.
An electrochromic material comprising a compound of Formula 1: wherein R 1 is selected from the group consisting of a single bond, a C 6 -C 50 aryl group which is unsubstituted or substituted with at least one group selected from halo, hydroxyl, amino, cyano, nitro, thienyl, C 1 -C 7 alkyl and C 2 -C 7 alkenyl, a C 5 -C 50 heteroaryl group which is unsubstituted or substituted with at least one group selected from halo, hydroxyl, amino, cyano, nitro, thienyl, C 1 -C 7 alkyl and C 2 -C 7 alkenyl, a thienyl group, a bithienyl group, a C 2 -C 20 alkenyl group conjugated with at least one heteroatom selected from S and O or with the isophthalate groups at both ends thereof, a C 2 -C 20 alkynyl group, a C 3 -C 20 alkenylalkyl group, a C 3 -C 20 alkynylalkyl group and a C 4 -C 20 alkenylalkynyl group, wherein each R 2 is independently -(CH 2) m - (wherein m is an integer from 1 to 10), and wherein each R 3 is independently selected from the group consisting of -H, -CH=CH 2, a 1,2-ethanediol group, a C 1 -C 10 linear, branched or cyclic alkyl group, a C 2 -C 10 linear or branched alkenyl group, a C 6 -C 12 aryl group, a C 5 -C 12 heteroaryl group, a carboxylic acid group and a phosphonic acid group, and wherein R 3 is not H when R 1 is a single bond and R 2 = CH 2.
A check valve for an exhaust gas line of an incineration plant, wherein the check valve comprises a tubular body which can be installed in a vertical section of the exhaust gas line, a float body, a valve seat constituted inside the tubular body for the one float body which can be lifted from the valve seat by gas flowing vertically upwards, and at least one peripheral groove which is open upstream and disposed radially inside the tubular body, said peripheral groove being limited by a radially inner peripheral wall section and a radially outer peripheral wall section, wherein the radially inner peripheral wall section and the radially outer peripheral wall section are constituted inside the tubular body and the peripheral edge of the radially inner peripheral wall section forms the valve seat for the at least one float body, characterized in that the peripheral edge of the at least one float body projects radially beyond the radially inner peripheral wall section and comprises an axial extension pointing upstream, which extends in the axial direction into the peripheral groove when the at least one float body sits on the valve seat, wherein, by means of a fluid present in the peripheral groove, the axial extension together with the fluid forms a gas-tight fluid barrier when the float body sits on the valve seat.