mhurhangee/patent-ind-claim-en huggingface dataset:
Improved-seal total-face mask for the respiratory therapy comprising a shaped shell at least covering mouth, nose and eyes of a patient and provided, along a perimeter which is suitable for being placed in contact against the patient's face, with a sealing gasket , said shaped shell being provided with at least one inlet fitting for inletting the mixture of air and oxygen from a ventilation apparatus, said improved-seal mask also comprising a neckpiece provided with a plurality of prongs , each joined in a fixed or removable manner to a corresponding fastening point , said plurality of fastening points being distributed over the perimeter of said shaped shell , characterized in that said shaped shell comprises five fastening points (17', 17", 17''') for said neckpiece , wherein two upper fastening points are arranged at the height of the eyes, symmetrically with respect to a sagittal plane, two lower fastening points (17") are arranged at the height of the chin, symmetrically with respect to a sagittal plane, and a fifth fastening point is arranged centrally along an upper edge of the mask suitable for resting on the forehead, namely in the sagittal plane and wherein said neckpiece comprises two opposite upper prongs suitable for passing over the ears, two opposite lower prongs (21") suitable for passing under the ears, and a central prong suitable for being arranged on the head in the sagittal plane, said central prong being adjustable in length at both of its ends (25 and 26), namely at the front end and at the rear end .
A spacer for arrangement between two prismatic battery cells of a battery stack , the spacer comprising: a rectangular frame body enclosing an opening and a pair of positioning elements which rise perpendicularly from a plane of the frame body to one side of the frame body and extend over the two corners of a common first longitudinal side (52.1) and wherein the spacer further comprises a distance element being arranged on the first longitudinal side (52.1) and rising perpendicularly from the plane of the frame body in a direction opposite to the positioning elements , the distance element having a length in the range of 0.5 mm to 1.0 mm. a rectangular frame body enclosing an opening and a pair of positioning elements which rise perpendicularly from a plane of the frame body to one side of the frame body and extend over the two corners of a common first longitudinal side (52.1) and wherein the spacer further comprises a distance element being arranged on the first longitudinal side (52.1) and rising perpendicularly from the plane of the frame body in a direction opposite to the positioning elements , the distance element having a length in the range of 0.5 mm to 1.0 mm.
A vehicle construction , preferably vehicle chassis of modular construction, having at least two supporting structures (T3, T4) which each have at least one connector node (K3, K4), characterized in that the supporting structures (T3, T4) have adjacent connector nodes (K3, K4) and the adjacent connector nodes (K3, K4) are connected to one another via at least one connecting construction, and the connecting construction has sleeves connected to one another and a clamping element extending substantially in a longitudinal direction (L) of the vehicle construction , wherein the clamping element extends through the sleeves which are connected to one another and loads the adjacent connector nodes (K3, K4) towards one another and/or loads them towards one another substantially in a longitudinal direction (L) of the vehicle construction .
Device for the pressure-filling of containers, with a plurality of filling stations with filling elements , which comprise sealing elements for a pressure-tight contact of the filling element with a container mouth, said device comprising, at least in the tension region (β), a splinter protection element facing towards the filling station , which in turn comprises at least one absorption element (36a-d) facing towards the filling station , wherein the absorption element (36a-d, 21, 40a-e) comprises sections which can be deflected in a spring-elastic manner, characterised in that the absorption element (36a-d, 21, 40a-e) comprises a wall structure (36a-d) or is formed by a wall structure (36a-d), at which the sections which can be deflected in a spring-elastic manner are formed as one piece , and that the sections are formed in the wall structure by a cutting or stamping process.
An audio processing apparatus comprising: a head-related transfer function synthesis section configured to synthesize an input signal, D' m (ω), in an annular harmonic domain or a portion of an input signal in a spherical harmonic domain corresponding to the annular harmonic domain and a diagonalized head-related transfer function, wherein a function f(Φ) can be represented in the annular harmonic domain by an annular harmonic function transformation to the function f(Φ) according to F m = ∫ 0 2 ⁢ π f φ Y m ̅ φ d ⁢ φ , Y M representing a complex conjugate of an annular harmonic function Y m ( φ ) = e jm φ of order m; and an annular harmonic inverse transformation section configured to perform an annular harmonic inverse transformation on a signal, B' m (ω), obtained by the synthesis on a basis of an annular harmonic function, Y Φ , to thereby generate a headphone driving signal in a time frequency domain, wherein the head-related transfer function synthesis section is configured to calculate a product of a diagonal matrix, H'(ω), obtained by diagonalizing a matrix, H(ω), including a plurality of head-related transfer functions by an annular harmonic function transformation and a vector, D'(ω), including the input signal, D' m (ω), corresponding to each order m of the annular harmonic function and thereby synthesizes the input signal and the diagonalized head-related transfer function, wherein the diagonal matrix, H'(ω), is obtained according to H' (ω) = Y Φ H H(ω)Y α , wherein Y α includes annular harmonic functions Y m (α i ) of different orders and angles α i of virtual speakers, and Y Φ includes annular harmonic functions corresponding to the input signal D' m (ω). Y M representing a complex conjugate of an annular harmonic function Y m ( φ ) = e jm φ of order m; and an annular harmonic inverse transformation section configured to perform an annular harmonic inverse transformation on a signal, B' m (ω), obtained by the synthesis on a basis of an annular harmonic function, Y Φ , to thereby generate a headphone driving signal in a time frequency domain, wherein the head-related transfer function synthesis section is configured to calculate a product of a diagonal matrix, H'(ω), obtained by diagonalizing a matrix, H(ω), including a plurality of head-related transfer functions by an annular harmonic function transformation and a vector, D'(ω), including the input signal, D' m (ω), corresponding to each order m of the annular harmonic function and thereby synthesizes the input signal and the diagonalized head-related transfer function, wherein the diagonal matrix, H'(ω), is obtained according to H' (ω) = Y Φ H H(ω)Y α , wherein Y α includes annular harmonic functions Y m (α i ) of different orders and angles α i of virtual speakers, and Y Φ includes annular harmonic functions corresponding to the input signal D' m (ω).
A method of predicting the survival outcome of a human subject having mantle cell lymphoma (MCL), which method comprises: determining a survival predictor score of the subject by (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by calculating a multiplication product for each gene of Table 1, wherein the multiplication product is the mathematical product of the log transformation of the signal value of a gene with a coefficient value for that gene, the coefficient value for the gene listed in Table 1, and summing the multiplication products; and classifying the subject as belonging to one of the following groups based on the survival predictor score: (i) good prognosis, (ii) intermediate prognosis, and (iii) poor prognosis. determining a survival predictor score of the subject by (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by calculating a multiplication product for each gene of Table 1, wherein the multiplication product is the mathematical product of the log transformation of the signal value of a gene with a coefficient value for that gene, the coefficient value for the gene listed in Table 1, and summing the multiplication products; and (a) isolating RNA gene expression product from a formalin-fixed and paraffin-embedded (FFPE) biopsy sample from the subject; (b) obtaining gene expression data from the RNA gene expression product, wherein the gene expression data comprises signal values that represent expression levels for each gene of Table 1; and (c) determining a survival predictor score from the gene expression data, wherein the survival predictor score is determined by classifying the subject as belonging to one of the following groups based on the survival predictor score: (i) good prognosis, (ii) intermediate prognosis, and (iii) poor prognosis.
A transverse-electromagnetic (TEM) radio-frequency coil for a magnetic resonance imaging system, wherein the coil comprises: a plurality of TEM coil elements , each of which has an elongate strip section , wherein the plurality of TEM coil elements are arranged such that the elongate strip sections are parallel and spaced apart around a volume (V) configured for receiving a subject to be examined, the plurality of TEM coil elements are encompassed by an electrically conductive RF-screen which forms an electrical ground for radio-frequency radiation and wherein both opposite end regions of the elongate strip section of each TEM coil element have a lateral extension transverse to the longitudinal extent of the respective strip section , thereby providing each TEM coil element with a U-shaped configuration, the lateral extensions being in the circumferential direction around the TEM radio-frequency coil's longitudinal axis and around the volume configured for receiving the subject to be examined, and the lateral extensions from the strip section of each TEM coil element are connected with the RF-screen at their free ends via a capacitor such that when current is fed to each TEM coil element via a connection or supply point (C), the current flows across the strip section and through the connection at the opposite free end, back to ground on the RF-screen , such that each coil element forms a loop, part of which is comprised by the RF-screen a plurality of TEM coil elements , each of which has an elongate strip section , wherein the plurality of TEM coil elements are arranged such that the elongate strip sections are parallel and spaced apart around a volume (V) configured for receiving a subject to be examined, the plurality of TEM coil elements are encompassed by an electrically conductive RF-screen which forms an electrical ground for radio-frequency radiation and wherein both opposite end regions of the elongate strip section of each TEM coil element have a lateral extension transverse to the longitudinal extent of the respective strip section , thereby providing each TEM coil element with a U-shaped configuration, the lateral extensions being in the circumferential direction around the TEM radio-frequency coil's longitudinal axis and around the volume configured for receiving the subject to be examined, and the lateral extensions from the strip section of each TEM coil element are connected with the RF-screen at their free ends via a capacitor such that when current is fed to each TEM coil element via a connection or supply point (C), the current flows across the strip section and through the connection at the opposite free end, back to ground on the RF-screen , such that each coil element forms a loop, part of which is comprised by the RF-screen
Hybridoma cell line DSM ACC3224, which produces the monoclonal antibody anti-My-C-1A4 against human cardiac myosin binding protein C.
Method for providing at least one function of an identity medium , wherein an entity that is authorised to carry the identity medium has at least one entity-specific feature, wherein at least one sensing device monitors a sensing region , associated with the sensing device, for at least one entity-specific feature, wherein at least one feature of the identity medium is deactivated if the at least one entity-specific feature has not been detected, characterised in that a spatial distance (A2) between the sensing device and the entity is determined, wherein a single value or value range of the distance is determined, wherein the at least one function of the identity medium is deactivated if the at least one entity-specific feature has not been detected and the spatial distance (A, A2) is greater than a predetermined distance, or if the spatial distance (A, A2) is greater than a predetermined distance, wherein the at least one function of the identity medium is activated if the at least one identity-specific feature has been detected and the spatial distance (A, A2) is smaller than the predetermined distance or equal to the predetermined distance, wherein a distance sensing device is equal to the sensing device, wherein a distance sensing device is arranged on, in, or at the identity medium , and wherein the spatial distance between the sensing device and the entity corresponds to the spatial distance between the identity medium and the entity.
A method for data transmission implemented on an electronic device having one or more processors , the one or more processors comprising: a master queue including a master queue head (SockQH) and a plurality of primary ports (SockA, SockB) that are connected to each other using a serial link, the master queue head (SockQH) being a socket port who's network protocol family includes a common attribute used by the primary ports in the master queue, each of the plurality of primary ports (SockA, SockB) communicating with one or more receiving devices, the method comprising: operating the master queue head (SockQH) to obtain a message; operating the master queue head (SockQH) to preprocess the message by segmenting it into a plurality of segments; operating the master queue head (SockQH) to transmit the plurality of segments to a first primary port (SockA) of the plurality of primary ports (SockA, SockB) in the master queue; and operating the first primary port (SockA) to transmit the plurality of segments to a second primary port (SockB) of the plurality of primary ports (SockA, SockB) in the master queue. operating the master queue head (SockQH) to obtain a message; operating the master queue head (SockQH) to preprocess the message by segmenting it into a plurality of segments; operating the master queue head (SockQH) to transmit the plurality of segments to a first primary port (SockA) of the plurality of primary ports (SockA, SockB) in the master queue; and operating the first primary port (SockA) to transmit the plurality of segments to a second primary port (SockB) of the plurality of primary ports (SockA, SockB) in the master queue.
An ejector device for an injection moulding machine for processing plastics and other plasticisable materials, such as ceramic and powder materials, having - at least one ejector cross , - at least one ejector plate that is movable in relation to the ejector cross , - at least one drive train which, as the spindle drive (S), includes a spindle nut and a spindle and a motor , and by which the ejector plate is drivable and linearly movable in a direction of movement of the ejector plate by means of force transmission, wherein, in the event of a movement of the ejector plate , the drive train is cushioned in its direction of movement, in the forward and rearward direction, by way of resilient devices , characterised in that a plurality of spindle drives are provided that are coupled to the motor by way of at least one gear , and in that , in the event of a movement of the ejector plate , the drive train is cushioned by resilient devices that are associated with the spindles and on which there is resiliently mounted at least one bolt . - at least one ejector cross , - at least one ejector plate that is movable in relation to the ejector cross , - at least one drive train which, as the spindle drive (S), includes a spindle nut and a spindle and a motor , and by which the ejector plate is drivable and linearly movable in a direction of movement of the ejector plate by means of force transmission, wherein, in the event of a movement of the ejector plate , the drive train is cushioned in its direction of movement, in the forward and rearward direction, by way of resilient devices ,
A method for enhancing corrosion resistance, wear resistance, and contact resistance of a metal substrate, which metal substrate is selected from nickel-based, iron-based and precious metal substrates, comprising a copper or copper alloy layer as top coat on a surface thereof, wherein the top coat is an incomplete surface cover exposing the metal substrate, the method comprising: exposing the substrate to a composition comprising a phosphorus oxide compound selected from the group consisting of a phosphonic acid, a phosphonate salt, a phosphonate ester, a phosphoric acid, a phosphate salt, a phosphate ester, and combinations thereof; a nitrogen-containing organic compound selected from the group consisting of primary amine, secondary amine, tertiary amine, aromatic heterocycle comprising nitrogen, and combinations thereof; an alcohol having a boiling point of at least 90°C; and wherein the phosphorous oxide compound reacts with and imparts a protective organic film over any metal of the exposed metal substrate exposed due to the incomplete surface coverage. exposing the substrate to a composition comprising a phosphorus oxide compound selected from the group consisting of a phosphonic acid, a phosphonate salt, a phosphonate ester, a phosphoric acid, a phosphate salt, a phosphate ester, and combinations thereof; a nitrogen-containing organic compound selected from the group consisting of primary amine, secondary amine, tertiary amine, aromatic heterocycle comprising nitrogen, and combinations thereof; an alcohol having a boiling point of at least 90°C; and a phosphorus oxide compound selected from the group consisting of a phosphonic acid, a phosphonate salt, a phosphonate ester, a phosphoric acid, a phosphate salt, a phosphate ester, and combinations thereof; a nitrogen-containing organic compound selected from the group consisting of primary amine, secondary amine, tertiary amine, aromatic heterocycle comprising nitrogen, and combinations thereof; an alcohol having a boiling point of at least 90°C; and wherein the phosphorous oxide compound reacts with and imparts a protective organic film over any metal of the exposed metal substrate exposed due to the incomplete surface coverage.
A method performed by a network node for enabling channel estimation in a wireless communications network , wherein the wireless communications network comprises at least a first and a second Access Point, AP, having overlapping cells using contention-based transmission resources of the same frequency, the method comprising: controlling the first AP to transmit information indicating that wireless devices served by the first AP are not to contend for the contention-based transmission resources when the second AP is transmitting a Null Data Packet, NDP; and controlling the second AP to transmit a NDP. controlling the first AP to transmit information indicating that wireless devices served by the first AP are not to contend for the contention-based transmission resources when the second AP is transmitting a Null Data Packet, NDP; and controlling the second AP to transmit a NDP.
A dressing for treating a tissue site with negative pressure, the dressing comprising: a tissue interface configured to be disposed at the tissue site; a sealing tape comprising a bonding adhesive and a sealing adhesive , the sealing tape configured to be disposed around the tissue interface and the tissue site; and a sealing member configured to be attached to the sealing tape over the tissue interface and the tissue site to form a sealed environment, wherein the sealing tape is configured to be coupled to epidermis adjacent to the tissue site and the sealing member is coupled to the sealing tape so that the sealing tape is between the sealing member and epidermis, wherein the sealing tape further comprises: a film layer coupled to the bonding adhesive ; and the sealing adhesive is coupled to the bonding adhesive , the sealing adhesive having portions removed to form a first pattern and expose the bonding adhesive through the sealing adhesive in a second pattern, wherein the bonding adhesive is a pressure sensitive adhesive; and wherein the sealing adhesive is formed of a silicone gel. a tissue interface configured to be disposed at the tissue site; a sealing tape comprising a bonding adhesive and a sealing adhesive , the sealing tape configured to be disposed around the tissue interface and the tissue site; and a sealing member configured to be attached to the sealing tape over the tissue interface and the tissue site to form a sealed environment, wherein the sealing tape is configured to be coupled to epidermis adjacent to the tissue site and the sealing member is coupled to the sealing tape so that the sealing tape is between the sealing member and epidermis, wherein the sealing tape further comprises: a film layer coupled to the bonding adhesive ; and the sealing adhesive is coupled to the bonding adhesive , the sealing adhesive having portions removed to form a first pattern and expose the bonding adhesive through the sealing adhesive in a second pattern, wherein the bonding adhesive is a pressure sensitive adhesive; and wherein the sealing adhesive is formed of a silicone gel. a film layer coupled to the bonding adhesive ; and the sealing adhesive is coupled to the bonding adhesive , the sealing adhesive having portions removed to form a first pattern and expose the bonding adhesive through the sealing adhesive in a second pattern, wherein the bonding adhesive is a pressure sensitive adhesive; and wherein the sealing adhesive is formed of a silicone gel.