mhurhangee/patent-ind-claim-en huggingface dataset:
A composition for pressure bonding having a viscosity of 20 to 200 Pa·s at a shear rate of 10 s -1 and 25°C, comprising: a metal powder comprising copper; a solid reducing agent and a non aqueous liquid medium, wherein the composition has a compressibility of 10% to 90%, the compressibility being expressed by the formula (X) below: Compressibility % = A − B / A × 100 wherein A represents a thickness (μm) of a dried coating film formed by drying the composition in an air atmosphere at 110°C under atmospheric pressure for 20 minutes, B represents a thickness (μm) of a sintered body formed by treating the dried coating film in a nitrogen atmosphere at 280°C under a pressure of 6 MPa for 20 minutes, wherein the solid reducing agent is an amino alcohol compound with a chemical structure having at least one amino group and a plurality of hydroxyl groups, wherein the solid reducing agent is in an amount of 0.1 to 10 parts by mass with respect to 100 parts by mass of the metal powder comprising copper, wherein the liquid medium contains polyethylene glycol, wherein the liquid medium content is from 10 parts by mass to 40 parts by mass with respect to 100 parts by mass of the copper powder, and wherein the metal powder comprises a combination of spherical metal particles with non spherical metal particles, wherein the non spherical metal particles are flat copper having an aspect ratio (a/b) of 2 to 80. wherein the composition has a compressibility of 10% to 90%, the compressibility being expressed by the formula (X) below: Compressibility % = A − B / A × 100 wherein A represents a thickness (μm) of a dried coating film formed by drying the composition in an air atmosphere at 110°C under atmospheric pressure for 20 minutes, B represents a thickness (μm) of a sintered body formed by treating the dried coating film in a nitrogen atmosphere at 280°C under a pressure of 6 MPa for 20 minutes, wherein the solid reducing agent is an amino alcohol compound with a chemical structure having at least one amino group and a plurality of hydroxyl groups, wherein the solid reducing agent is in an amount of 0.1 to 10 parts by mass with respect to 100 parts by mass of the metal powder comprising copper, wherein the liquid medium contains polyethylene glycol, wherein the liquid medium content is from 10 parts by mass to 40 parts by mass with respect to 100 parts by mass of the copper powder, and wherein the metal powder comprises a combination of spherical metal particles with non spherical metal particles, wherein the non spherical metal particles are flat copper having an aspect ratio (a/b) of 2 to 80.
A method of operating a sealing station of a packaging machine for producing, in the case of possibly varying filling degrees , packages (V) with at least substantially similar package appearances, the method comprising the following steps: • filling (A) a free package volume (P) enclosed between a lower and an upper packaging material and defined by at least one package (V) positioned within the sealing station with a gas (G), intended to be used for creating a desired atmosphere, from an initial pressure (P1) prevailing in the package volume (P) up to a predetermined gas flushing pressure (P2), • detecting (B), at least temporarily during filling (A) of the package volume (P), a pressure curve by means of at least one pressure-detecting sensor system connected to the package volume (P), the pressure curve being preferably detected on the basis of a time-dependent pressure curve (K IST ) between the initial pressure (P1) and the predetermined gas flushing pressure (P2), • comparing (C) the detected pressure curve with a reference pressure curve detected preferably on the basis of a pressure curve (K REF ), which, in turn, is time-dependent, for filling a known free reference package volume (P REF ) of at least one, in particular empty reference package (V REF ) positioned within the sealing station with the gas (G) between the initial pressure (P1) and the predetermined gas flushing pressure (P2), • setting (E) at least one process parameter (PP) at the packaging machine with due regard to the comparing of the detected pressure curve with the reference pressure curve . • filling (A) a free package volume (P) enclosed between a lower and an upper packaging material and defined by at least one package (V) positioned within the sealing station with a gas (G), intended to be used for creating a desired atmosphere, from an initial pressure (P1) prevailing in the package volume (P) up to a predetermined gas flushing pressure (P2), • detecting (B), at least temporarily during filling (A) of the package volume (P), a pressure curve by means of at least one pressure-detecting sensor system connected to the package volume (P), the pressure curve being preferably detected on the basis of a time-dependent pressure curve (K IST ) between the initial pressure (P1) and the predetermined gas flushing pressure (P2), • comparing (C) the detected pressure curve with a reference pressure curve detected preferably on the basis of a pressure curve (K REF ), which, in turn, is time-dependent, for filling a known free reference package volume (P REF ) of at least one, in particular empty reference package (V REF ) positioned within the sealing station with the gas (G) between the initial pressure (P1) and the predetermined gas flushing pressure (P2), • setting (E) at least one process parameter (PP) at the packaging machine with due regard to the comparing of the detected pressure curve with the reference pressure curve .
A method of manufacturing a patterned substrate, comprising: forming a polymer layer including a block copolymer within a trench on a substrate, the trench being formed by mesa structures formed and arranged so as to have an interval between them on the substrate; and realizing a self-assembled structure of the block copolymer, wherein a neutral treatment is not performed on a surface in the trench, with which the polymer layer including the block copolymer contacts, wherein the self-assembled structure comprises a vertical oriented block copolymer and the self-assembled structure of the block copolymer is a lamella structure and wherein the block copolymer includes a first block having the unit represented by Formula 1 and a second block having the unit represented by Formula 5; where R is a hydrogen or an alkyl group, X is a single bond, an oxygen atom, a sulfur atom, -S(=O) 2 -, a carbonyl group, an alkylene group, an alkenylene group, an alkynylene group, -C(=O)-X 1 - or -X 1 -C(=O)-, in which X 1 is an oxygen atom, a sulfur atom, -S(=O) 2 -, an alkylene group, an alkenylene group or an alkynylene group, and Y is a monovalent substituent including a ring structure to which a side chain is linked; where B is a monovalent substituent having an aromatic structure including one or more halogen atoms. forming a polymer layer including a block copolymer within a trench on a substrate, the trench being formed by mesa structures formed and arranged so as to have an interval between them on the substrate; and realizing a self-assembled structure of the block copolymer, wherein a neutral treatment is not performed on a surface in the trench, with which the polymer layer including the block copolymer contacts, wherein the self-assembled structure comprises a vertical oriented block copolymer and the self-assembled structure of the block copolymer is a lamella structure and wherein the block copolymer includes a first block having the unit represented by Formula 1 and a second block having the unit represented by Formula 5; where R is a hydrogen or an alkyl group, X is a single bond, an oxygen atom, a sulfur atom, -S(=O) 2 -, a carbonyl group, an alkylene group, an alkenylene group, an alkynylene group, -C(=O)-X 1 - or -X 1 -C(=O)-, in which X 1 is an oxygen atom, a sulfur atom, -S(=O) 2 -, an alkylene group, an alkenylene group or an alkynylene group, and Y is a monovalent substituent including a ring structure to which a side chain is linked; where B is a monovalent substituent having an aromatic structure including one or more halogen atoms.
Method for manufacturing a process container for the chemical treatment of semiconductor workpieces , which is generated with a specified shape from a base material by means of 3D printing, wherein subsequently a coating material is applied at least in predetermined regions of a surface of the process container for protection against chemicals capable of etching the semiconductor workpiece, the coating material being applied via a low-temperature coating method, more particularly a low-temperature sintering method, preferably with a temperature below 150°C, wherein polytetrafluoroethylene, PTFE, perfluoroalkoxy polymer, PFA, or polyvinylidene fluoride, PVDF, is used as coating material. wherein subsequently a coating material is applied at least in predetermined regions of a surface of the process container for protection against chemicals capable of etching the semiconductor workpiece, the coating material being applied via a low-temperature coating method, more particularly a low-temperature sintering method, preferably with a temperature below 150°C, wherein polytetrafluoroethylene, PTFE, perfluoroalkoxy polymer, PFA, or polyvinylidene fluoride, PVDF, is used as coating material.
Tool for friction stir welding - with a central shaft , which is pin-shaped and is provided for coupling to a drive device, - with a first friction shoulder , which is carried by the central shaft , - with a second friction shoulder , which is carried by the central shaft in the longitudinal direction (LR) of the central shaft at a distance from the first friction shoulder , - with two support shoulders carried by the central shaft , which are arranged between the friction shoulders and of which at least one is mounted axially displaceably on the central shaft , and - with an actuation device , which is arranged between the support shoulders and configured to exert, in use, at least on the axially displaceable support shoulder , a force which is directed in the direction (LR) of the friction shoulder arranged in each case next adjacent to the axially displaceable support shoulder , characterised in that the actuation device comprises an actuator which, in use, is driven radially outwards away from the central shaft of the tool by the centrifugal forces (Ff) then acting and, in so doing, acts against an inclined surface formed on the respective support shoulder . - with a central shaft , which is pin-shaped and is provided for coupling to a drive device, - with a first friction shoulder , which is carried by the central shaft , - with a second friction shoulder , which is carried by the central shaft in the longitudinal direction (LR) of the central shaft at a distance from the first friction shoulder , - with two support shoulders carried by the central shaft , which are arranged between the friction shoulders and of which at least one is mounted axially displaceably on the central shaft , and - with an actuation device , which is arranged between the support shoulders and configured to exert, in use, at least on the axially displaceable support shoulder , a force which is directed in the direction (LR) of the friction shoulder arranged in each case next adjacent to the axially displaceable support shoulder ,
A method for authorizing a portable device to communicate with an implantable medical device, the method comprising: performing a test that determines whether at least one device configuration parameter respectively corresponding to at least one feature to be tested on the portable device is fulfilled by the portable device, wherein the at least one feature is one or more features selected from the group consisting of: a storage memory of the portable device, a random access memory of the portable device, a screen height of the portable device, a screen width of the portable device, a model of the portable device, a speed of central processing unit of the portable device, a USB capability of the portable device, a near field communication capability of the portable device, a Bluetooth® capability of the portable device, a sensitivity of a touchscreen of the portable device, and an accuracy of the touchscreen of the portable device; authorizing the portable device to communicate with the implantable medical device only if the at least one feature is fulfilled by the portable device; and denying authorization of the portable device to communicate with the implantable medical device if the at least one feature is not fulfilled by the portable device. performing a test that determines whether at least one device configuration parameter respectively corresponding to at least one feature to be tested on the portable device is fulfilled by the portable device, wherein the at least one feature is one or more features selected from the group consisting of: a storage memory of the portable device, a random access memory of the portable device, a screen height of the portable device, a screen width of the portable device, a model of the portable device, a speed of central processing unit of the portable device, a USB capability of the portable device, a near field communication capability of the portable device, a Bluetooth® capability of the portable device, a sensitivity of a touchscreen of the portable device, and an accuracy of the touchscreen of the portable device; authorizing the portable device to communicate with the implantable medical device only if the at least one feature is fulfilled by the portable device; and denying authorization of the portable device to communicate with the implantable medical device if the at least one feature is not fulfilled by the portable device.
A method of manufacturing an abrasion and water resistant multilayer panel, in particular an abrasion and water resistant floor panel, comprising the steps of: - providing at least one PVC carrier plate; - applying at least one base coat comprising at least one polyurethane hot melt adhesive to the surface of the PVC carrier plate; - applying at least one white base coat on top of the base coat; - direct printing on the PVC carrier plate with the formation of a decorative layer; - applying at least a first covering layer comprising a polyurethane hot-melt adhesive to the printed decorative layer; wherein the amount of the polyurethane hot-melt adhesive as first covering layer is between 20 and 50 g/m 2 , preferably 30 and 40 g/m 2 ; - uniform scattering of abrasion-resistant particles onto the at least one covering ayer applied to the decorative layer; - applying at least a second covering layer comprising a polyurethane hot-melt adhesive on the layer of scattered abrasion-resistant particles; wherein the amount of the polyurethane hot-melt adhesive as second covering layer varies depending on the amount of the first covering layer applied to the printed decoration and is between 20 and 50 g/m 2 , preferably 30 and 40 g/m 2 ; - introducing a structure into the at least second covering layer; - applying at least one lacquer layer; and - curing of the layer structure, whereby the polyurethane hot melt adhesive is applied at an application temperature of approx. 150°C. - providing at least one PVC carrier plate; - applying at least one base coat comprising at least one polyurethane hot melt adhesive to the surface of the PVC carrier plate; - applying at least one white base coat on top of the base coat; - direct printing on the PVC carrier plate with the formation of a decorative layer; - applying at least a first covering layer comprising a polyurethane hot-melt adhesive to the printed decorative layer; wherein the amount of the polyurethane hot-melt adhesive as first covering layer is between 20 and 50 g/m 2 , preferably 30 and 40 g/m 2 ; - uniform scattering of abrasion-resistant particles onto the at least one covering ayer applied to the decorative layer; - applying at least a second covering layer comprising a polyurethane hot-melt adhesive on the layer of scattered abrasion-resistant particles; wherein the amount of the polyurethane hot-melt adhesive as second covering layer varies depending on the amount of the first covering layer applied to the printed decoration and is between 20 and 50 g/m 2 , preferably 30 and 40 g/m 2 ; - introducing a structure into the at least second covering layer; - applying at least one lacquer layer; and - curing of the layer structure,
A portable electronic device comprising: a one piece housing forming enclosed exterior lateral sides and a rear side; an engine section comprising a printed circuit board, a transceiver, a processor, a memory and electrical connectors for further electronic devices to connect to; a battery located adjacent the engine section in a side by side arrangement in a direct contact with each other in the one piece housing in a plane being parallel to the rear side of the one piece housing; a user input section located above the engine section and the battery , the user input section being located in a hole through the front side of the housing; an access entry wherein the access entry is configured to receive a door that supports the further electronic devices, the access entry providing an access at least to the engine section . a one piece housing forming enclosed exterior lateral sides and a rear side; an engine section comprising a printed circuit board, a transceiver, a processor, a memory and electrical connectors for further electronic devices to connect to; a battery located adjacent the engine section in a side by side arrangement in a direct contact with each other in the one piece housing in a plane being parallel to the rear side of the one piece housing; a user input section located above the engine section and the battery , the user input section being located in a hole through the front side of the housing; an access entry wherein the access entry is configured to receive a door that supports the further electronic devices, the access entry providing an access at least to the engine section .
A riding lawn mower comprising: a traveling vehicle body having traveling wheels ; a mower device for lawn mowing connected to the traveling vehicle body ; a driver seat disposed in a front portion of the traveling vehicle body ; an engine disposed in a rear portion of the traveling vehicle body ; an engine fan disposed in front of the engine ; characterized by an engine control device disposed in front of the engine fan and configured to control the engine , wherein the engine control device has a flat outer shape, and is erected with a surface having a large area facing a front-rear direction. a traveling vehicle body having traveling wheels ; a mower device for lawn mowing connected to the traveling vehicle body ; a driver seat disposed in a front portion of the traveling vehicle body ; an engine disposed in a rear portion of the traveling vehicle body ; an engine fan disposed in front of the engine ; characterized by an engine control device disposed in front of the engine fan and configured to control the engine , wherein the engine control device has a flat outer shape, and is erected with a surface having a large area facing a front-rear direction.
Ventilator , at least comprising a gas supply device and a gas discharge device , for supplying a first fluid flow to an airway of a patient and for discharging a second fluid flow from the airway back into the ventilator or to an environment , a pressure sensor for measuring a pressure in the airway , and a control device for operating the ventilator ; wherein the fluid flow is adjustable to a constant value at least during an inspiration process and an expiration process ; characterized in that the control device is configured to carry out a method comprising at least the following steps: a) carrying out an inspiration process with a constant first fluid flow by means of the gas supply device , b) stopping the first fluid flow by means of the gas supply device at a first time point , and at the same time c) determining a first pressure difference between a first pressure present at the first time point of stopping and a second pressure occurring after a time interval by means of the pressure sensor ; and d) carrying out an expiration process with a constant second fluid flow by means of the gas discharge device , e) stopping the second fluid flow by means of the gas discharge device at a second time point , and at the same time f) determining a second pressure difference between a third pressure present at the second time point of stopping and a fourth pressure occurring after a time interval by means of the pressure sensor ; g) defining and providing a difference between the first pressure difference and the second pressure difference as a first index which is usable for determination of at least a tissue-related resistance of the patient. a) carrying out an inspiration process with a constant first fluid flow by means of the gas supply device , b) stopping the first fluid flow by means of the gas supply device at a first time point , and at the same time c) determining a first pressure difference between a first pressure present at the first time point of stopping and a second pressure occurring after a time interval by means of the pressure sensor ; and d) carrying out an expiration process with a constant second fluid flow by means of the gas discharge device , e) stopping the second fluid flow by means of the gas discharge device at a second time point , and at the same time f) determining a second pressure difference between a third pressure present at the second time point of stopping and a fourth pressure occurring after a time interval by means of the pressure sensor ; g) defining and providing a difference between the first pressure difference and the second pressure difference as a first index which is usable for determination of at least a tissue-related resistance of the patient.
A monolithic component for a timepiece, in particular for a mechanical timepiece, designed to transmit the movement of an actuator of the timepiece to a driven part of the timepiece, characterized in that said monolithic component comprises - a rigid frame , - a first rigid driving member , and - a first elastically flexible structure (2, 2', 2"', 7) connecting said frame to said first driving member , and in that said first elastically flexible structure (2, 2', 2"', 7) is configured in a manner such as to provide a displacement of said first driving member with at least two degrees of freedom, said displacement being caused under the effect of the actuator . - a rigid frame , - a first rigid driving member , and - a first elastically flexible structure (2, 2', 2"', 7) connecting said frame to said first driving member ,