mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a retaining device with hooks, wherein: • a molding strip is provided that presents an inside face and an outside face , and that has a plurality of cavities , each cavity defining a stem extending from the outside face towards the inside face and including an end forming a head that extends from the stem towards the inside face of the molding strip ; • the molding strip is positioned on rotary drive means , the inside face of the molding strip being arranged to bear against the drive means ; • molding material is dispensed against the outside face of the molding strip via material dispenser means arranged facing the molding strip in such a manner as to define a gap between the material dispenser means and the molding strip , the step of dispensing molding material being performed in such a manner as to fill said gap and the cavities with molding material so as to form a tape comprising a base of thickness that is defined by the gap, and first preforms projecting from said base , each comprising a stem and a head , the first preforms being formed by the plastics material in the cavities of the molding strip ; and • the tape is unmolded in such a manner as to deform the first preforms plastically so as to obtain second preforms of shape that is different from the first preforms. • a molding strip is provided that presents an inside face and an outside face , and that has a plurality of cavities , each cavity defining a stem extending from the outside face towards the inside face and including an end forming a head that extends from the stem towards the inside face of the molding strip ; • the molding strip is positioned on rotary drive means , the inside face of the molding strip being arranged to bear against the drive means ; • molding material is dispensed against the outside face of the molding strip via material dispenser means arranged facing the molding strip in such a manner as to define a gap between the material dispenser means and the molding strip , the step of dispensing molding material being performed in such a manner as to fill said gap and the cavities with molding material so as to form a tape comprising a base of thickness that is defined by the gap, and first preforms projecting from said base , each comprising a stem and a head , the first preforms being formed by the plastics material in the cavities of the molding strip ; and • the tape is unmolded in such a manner as to deform the first preforms plastically so as to obtain second preforms of shape that is different from the first preforms.
An encapsulation film comprising: an encapsulation layer which encapsulates the top surface of an organic electronic element formed on a substrate; and a metal layer formed on the encapsulation layer, wherein the encapsulation layer satisfies the following general formula 1, wherein H T1 is a thickness of the encapsulation layer at 25°C, H T2 is a length of the encapsulation layer connecting the outermost side of the substrate and the outermost side of the metal layer at a temperature of T2, and ΔL CTE satisfies the following general formula 2, Δ L CTE = CTE METAL − CTE SUB × L T 1 × T 2 − T 1 wherein CTE METAL is a CTE value of the metal layer, CTE SUB is a CTE value of the substrate, L T1 is a long side length of the encapsulation layer at 25°C, T1 is 25°C, and T2 is 85°C. an encapsulation layer which encapsulates the top surface of an organic electronic element formed on a substrate; and a metal layer formed on the encapsulation layer, wherein the encapsulation layer satisfies the following general formula 1, wherein H T1 is a thickness of the encapsulation layer at 25°C, H T2 is a length of the encapsulation layer connecting the outermost side of the substrate and the outermost side of the metal layer at a temperature of T2, and ΔL CTE satisfies the following general formula 2, Δ L CTE = CTE METAL − CTE SUB × L T 1 × T 2 − T 1 wherein CTE METAL is a CTE value of the metal layer, CTE SUB is a CTE value of the substrate, L T1 is a long side length of the encapsulation layer at 25°C, T1 is 25°C, and T2 is 85°C.
A ceiling-embedded air conditioner comprising: a main unit ; and a decorative panel that has an intake port and an outlet guide tube and is mounted on a bottom surface of the main unit, wherein the main unit includes: a box-shaped housing that has a top plate, a front plate , a rear plate, a left plate, and a right plate; a heat exchanger that is disposed inside the housing ; a fan unit that is disposed inside the housing and includes a sirocco fan configured to collect air from the intake port and discharge the air from an outlet tube ; and a drain pan that collects dew drops formed on the heat exchanger and has an outlet port opening through which the air discharged from the outlet tube of the sirocco fan passes toward the outlet guide tube of the decorative panel , the outlet guide tube of the decorative panel has: a top opening that communicates with the outlet tube of the sirocco fan through the outlet port opening of the drain pan ; a bottom opening that faces a direction below the front plate of the main unit ; and an outlet ventilation path that connects the top opening to the bottom opening and is curved, and a bottom end of the bottom opening protrudes more downwards than a front part of a bottom surface of the decorative panel does. a main unit ; and a decorative panel that has an intake port and an outlet guide tube and is mounted on a bottom surface of the main unit, wherein the main unit includes: a box-shaped housing that has a top plate, a front plate , a rear plate, a left plate, and a right plate; a heat exchanger that is disposed inside the housing ; a fan unit that is disposed inside the housing and includes a sirocco fan configured to collect air from the intake port and discharge the air from an outlet tube ; and a drain pan that collects dew drops formed on the heat exchanger and has an outlet port opening through which the air discharged from the outlet tube of the sirocco fan passes toward the outlet guide tube of the decorative panel , a box-shaped housing that has a top plate, a front plate , a rear plate, a left plate, and a right plate; a heat exchanger that is disposed inside the housing ; a fan unit that is disposed inside the housing and includes a sirocco fan configured to collect air from the intake port and discharge the air from an outlet tube ; and a drain pan that collects dew drops formed on the heat exchanger and has an outlet port opening through which the air discharged from the outlet tube of the sirocco fan passes toward the outlet guide tube of the decorative panel , the outlet guide tube of the decorative panel has: a top opening that communicates with the outlet tube of the sirocco fan through the outlet port opening of the drain pan ; a bottom opening that faces a direction below the front plate of the main unit ; and an outlet ventilation path that connects the top opening to the bottom opening and is curved, and a bottom end of the bottom opening protrudes more downwards than a front part of a bottom surface of the decorative panel does.
A bus device comprising a bus protocol controller with a transmit data output ; and a bus transceiver with a transmit data input coupled to the transmit data output of the bus protocol controller, wherein the bus protocol controller is configured to provide a serial bit stream designated for transmission through a bus via the transmit data output of the bus protocol controller and via the transmit data input to the bus transceiver and to provide a switching signal within the serial bit stream, wherein the switching signal comprises at least one of a change of the bit coding scheme and a change of the bit rate of the serial bit stream, and wherein the bus protocol controller is configured to provide at least one of different bit coding schemes and different bit rates of the serial bit stream corresponding with different operating modes, and wherein the bus transceiver is configured to switch between the different operating modes in response to the switching signal. a bus protocol controller with a transmit data output ; and a bus transceiver with a transmit data input coupled to the transmit data output of the bus protocol controller, wherein the bus protocol controller is configured to provide a serial bit stream designated for transmission through a bus via the transmit data output of the bus protocol controller and via the transmit data input to the bus transceiver and to provide a switching signal within the serial bit stream, wherein the switching signal comprises at least one of a change of the bit coding scheme and a change of the bit rate of the serial bit stream, and wherein the bus protocol controller is configured to provide at least one of different bit coding schemes and different bit rates of the serial bit stream corresponding with different operating modes, and wherein the bus transceiver is configured to switch between the different operating modes in response to the switching signal.
A computer-implemented discrete dipole approximation, "DDA", method , comprising: identifying a discrete dipole interaction matrix for a plurality of discrete dipoles corresponding to a plurality of scattering elements of a surface scattering antenna, wherein in the identifying of the discrete dipole interaction matrix includes: identifying a waveguide geometry and plurality of locations of the scattering elements for the surface scattering antenna, wherein the scattering elements correspond to apertures in a surface of the waveguide geometry, characterized in that the waveguide geometry is a closed waveguide geometry. identifying a discrete dipole interaction matrix for a plurality of discrete dipoles corresponding to a plurality of scattering elements of a surface scattering antenna, wherein in the identifying of the discrete dipole interaction matrix includes: identifying a waveguide geometry and plurality of locations of the scattering elements for the surface scattering antenna, wherein the scattering elements correspond to apertures in a surface of the waveguide geometry, characterized in that the waveguide geometry is a closed waveguide geometry.
A dispenser for dispensing viscous material on a substrate having a top surface and a bottom surface , the dispenser comprising: a frame ; a gantry system coupled to the frame ; a dispensing unit coupled to the gantry system , the gantry system being configured to move the dispensing unit in x-axis, y-axis, and z-axis directions; a substrate support assembly coupled to the frame and configured to support the substrate in a dispense position to dispense material on the top surface of the substrate and on the bottom surface of the substrate ; a transport system coupled to the frame and configured to transport substrates into and out of the substrate support assembly ; and an inverter system coupled to the frame and in communication with the transport system , the inverter system being positioned outside the substrate support assembly and configured to rotate a substrate orientation between a first position in which the top surface of the substrate faces upwardly and a second position in which the bottom surface of the substrate faces upwardly, the inverter system including a first driven assembly configured to engage one edge of the substrate and a second driven assembly configured to engage an opposite edge of the substrate , the first driven assembly and the second driven assembly being configured to drive a linear movement of the substrate , characterized in that the frame includes a shelf disposed on an outlet side of the transport system , the shelf supporting the inverter system . a frame ; a gantry system coupled to the frame ; a dispensing unit coupled to the gantry system , the gantry system being configured to move the dispensing unit in x-axis, y-axis, and z-axis directions; a substrate support assembly coupled to the frame and configured to support the substrate in a dispense position to dispense material on the top surface of the substrate and on the bottom surface of the substrate ; a transport system coupled to the frame and configured to transport substrates into and out of the substrate support assembly ; and an inverter system coupled to the frame and in communication with the transport system , the inverter system being positioned outside the substrate support assembly and configured to rotate a substrate orientation between a first position in which the top surface of the substrate faces upwardly and a second position in which the bottom surface of the substrate faces upwardly, the inverter system including a first driven assembly configured to engage one edge of the substrate and a second driven assembly configured to engage an opposite edge of the substrate , the first driven assembly and the second driven assembly being configured to drive a linear movement of the substrate , characterized in that the frame includes a shelf disposed on an outlet side of the transport system , the shelf supporting the inverter system .
Method for enhancing an audio signal of a hearing device , comprising the steps of: - using a microphone of the hearing device to receive an environmental audio signal originating from an environment of a user listening to the hearing device, - wirelessly transmitting the environmental audio signal to a processing unit with a communications unit of the hearing device, - processing the environmental audio signal by means of the processing unit to enhance the environmental audio signal by suppressing noise and/or amplifying audio data, - wirelessly receiving the enhanced audio signal from the processing unit with a receiver of the communications unit , - outputting the enhanced audio signal to the user listening to the hearing device by means of a speaker of the hearing device, wherein the processing unit is arranged in a communications network , away from the hearing device, on an Internet server or on a server in a cloud computing network, wherein the processing unit is configured for receiving the environmental audio signal from the microphone of the hearing device via the communications unit and retransmitting the enhanced audio signal to the speaker of the hearing device via the communications unit over the communications network, characterized by - accessing a database , comprised by a storage unit arranged at the server , containing an optimal hearing profile associated with the user , wherein the processing unit is in communication with the storage unit comprising the database, the optimal hearing profile comprising information of the user's hearing range, and - taking into account the user's optimal hearing profile when processing the environmental audio signal into the enhanced audio signal, such that the noise suppression and/or audio data amplification are based, albeit partly, on the optimal hearing profile of the user. - using a microphone of the hearing device to receive an environmental audio signal originating from an environment of a user listening to the hearing device, - wirelessly transmitting the environmental audio signal to a processing unit with a communications unit of the hearing device, - processing the environmental audio signal by means of the processing unit to enhance the environmental audio signal by suppressing noise and/or amplifying audio data, - wirelessly receiving the enhanced audio signal from the processing unit with a receiver of the communications unit , - outputting the enhanced audio signal to the user listening to the hearing device by means of a speaker of the hearing device, - accessing a database , comprised by a storage unit arranged at the server , containing an optimal hearing profile associated with the user , wherein the processing unit is in communication with the storage unit comprising the database, the optimal hearing profile comprising information of the user's hearing range, and - taking into account the user's optimal hearing profile when processing the environmental audio signal into the enhanced audio signal, such that the noise suppression and/or audio data amplification are based, albeit partly, on the optimal hearing profile of the user.
A hollow core optical fibre comprising: a tubular jacket ; a cladding comprising a plurality of primary cells spaced apart from one another in a ring around an inner surface of the jacket with gaps between adjacent cells, each primary cell secured to the inner surface of the jacket at a peripheral location around the circumference of the jacket; and a hollow core formed by a central void within the ring of primary cells; wherein the cladding further comprises, inside each primary cell, two secondary cells and no more, the two secondary cells spaced apart from one another and a gap between the two secondary cells, each secondary cell secured to an inner surface of its associated primary cell at a location which is not coincident with the peripheral location between the primary cell and the inner surface of the jacket, such that the location at which each secondary cell is secured to the primary cell does not lie along a radius of the fibre from a centre of the core to the peripheral location at which the primary cell is secured to the jacket . a tubular jacket ; a cladding comprising a plurality of primary cells spaced apart from one another in a ring around an inner surface of the jacket with gaps between adjacent cells, each primary cell secured to the inner surface of the jacket at a peripheral location around the circumference of the jacket; and a hollow core formed by a central void within the ring of primary cells; wherein the cladding further comprises, inside each primary cell, two secondary cells and no more, the two secondary cells spaced apart from one another and a gap between the two secondary cells, each secondary cell secured to an inner surface of its associated primary cell at a location which is not coincident with the peripheral location between the primary cell and the inner surface of the jacket, such that the location at which each secondary cell is secured to the primary cell does not lie along a radius of the fibre from a centre of the core to the peripheral location at which the primary cell is secured to the jacket .
A stapler apparatus, comprising: (a) a stapler having a proximal end , a distal end and a longitudinal axis , the stapler further comprising: (i) a trigger , (ii) an anvil docking pin aligned substantially parallel with the longitudinal axis of the stapler ; and (iii) a stapling means , the anvil docking pin and stapling means being at the distal end of the stapler ; and (b) a detachable anvil , comprising an anvil head and an anvil shaft , wherein the length of the anvil shaft is at least 4 cm, wherein the anvil shaft is adapted to receive the anvil docking pin and operation of the trigger causes the stapling means to be actuated, characterised in that the anvil shaft comprises an internal chamber and the anvil docking pin is insertable into the internal chamber of the anvil shaft , and further characterised in that the anvil shaft comprises a viewing window and the anvil docking pin comprises a docking indicator such than when the anvil is fully docked over the anvil docking pin , the docking indicator is visible through the viewing window . (a) a stapler having a proximal end , a distal end and a longitudinal axis , the stapler further comprising: (i) a trigger , (ii) an anvil docking pin aligned substantially parallel with the longitudinal axis of the stapler ; and (iii) a stapling means , the anvil docking pin and stapling means being at the distal end of the stapler ; and (i) a trigger , (ii) an anvil docking pin aligned substantially parallel with the longitudinal axis of the stapler ; and (iii) a stapling means , the anvil docking pin and stapling means being at the distal end of the stapler ; and (b) a detachable anvil , comprising an anvil head and an anvil shaft , wherein the length of the anvil shaft is at least 4 cm,
Method for reducing an amount of sub visible particles in a pharmaceutical composition contained in a medical injection device comprising a container including a barrel lubricated with a lubricant coating in contact with the pharmaceutical composition, and a stopper in sliding engagement within the barrel , the container comprising a region extending distally from the distal end of the barrel which is not accessible to the stopper, characterized in that , during formation of said lubricant coating on the inner wall of the barrel, the method comprises controlling the deposition of lubricant in the barrel by spraying the lubricant onto the inner wall of the barrel by a nozzle movingly inserted into the barrel through a proximal end of the container, the spray being configured to limit deposition of lubricant into the region extending distally from the distal end of the barrel, the total amount of lubricant deposited into the region extending distally from the distal end of the barrel being less than 25 μg.
A high strength steel sheet having a composition consisting of, in terms weight percentages: C 0.07 - 0.13 Si 0.1 - 0.3, preferably more than 0.1 and less than 0.3 Mn 2.3 - 3.0 Cr 0.2 - 0.5 Ti 0.02 - 0.05 B 0.002 - 0.01 Mo ≤ 0.2 V ≤ 0.2 Cu ≤ 0.2 Ni ≤ 0.5 Ca ≤ 0.005, preferably 0.001 - 0.005 Al ≤ 0.1, preferably 0.01 - 0.1 P ≤ 0.05 S ≤ 0.01 N ≤ 0.008 remainder Fe and inevitable impurities, wherein the steel sheet has an ultimate tensile strength R m of at least 950 MPa, and a thickness accuracy better than 1/5 of EN 10143:2006 normal thickness tolerances, wherein the steel sheet have a microstructure comprising a matrix consisting of, in terms of volume percentages: martensite 20 - 70 retained austenite ≤ 8, preferably ≤ 2, more preferably ≤ 1 pearlite and/or ferrite ≤ 5 remainder bainite and/or fine-grained ferrite, and wherein the bainite and/or fine-grained ferrite have a microstructure with the average grain size of less than 10 μm. an ultimate tensile strength R m of at least 950 MPa, and a thickness accuracy better than 1/5 of EN 10143:2006 normal thickness tolerances, wherein the steel sheet have a microstructure comprising a matrix consisting of, in terms of volume percentages: martensite 20 - 70 retained austenite ≤ 8, preferably ≤ 2, more preferably ≤ 1 pearlite and/or ferrite ≤ 5 remainder bainite and/or fine-grained ferrite, and wherein the bainite and/or fine-grained ferrite have a microstructure with the average grain size of less than 10 μm.
A multi-use cold pack device comprising: (i) an attachment wrap comprising a Z-configuration and having a highly adjustable fastening zone; and (ii) a multi-cell gel pack located between two segments of stretch material of the attachment wrap, including - a body-side insulation layer ; - a clothing-side insulation layer extending opposite to the body-side insulation layer; and - a gel composition arranged between said body-side and clothing-side insulation layers, wherein said gel composition does not include an antifreeze component, characterized in that the two segments of stretch material each comprises a corrugated material that uniformly stretches to no more than 15% necking. (i) an attachment wrap comprising a Z-configuration and having a highly adjustable fastening zone; and (ii) a multi-cell gel pack located between two segments of stretch material of the attachment wrap, including - a body-side insulation layer ; - a clothing-side insulation layer extending opposite to the body-side insulation layer; and - a gel composition arranged between said body-side and clothing-side insulation layers, wherein said gel composition does not include an antifreeze component, characterized in that the two segments of stretch material each comprises a corrugated material that uniformly stretches to no more than 15% necking. - a body-side insulation layer ; - a clothing-side insulation layer extending opposite to the body-side insulation layer; and - a gel composition arranged between said body-side and clothing-side insulation layers, wherein said gel composition does not include an antifreeze component, characterized in that the two segments of stretch material each comprises a corrugated material that uniformly stretches to no more than 15% necking.