mhurhangee/patent-ind-claim-en huggingface dataset:
A method of testing a corrosion resistance of a coated metal material , said coated metal material including a surface treatment film on a metal substrate , the method comprising: treatment of interposing a water-containing electrolyte material comprising a supporting electrolyte, and a water penetration enhancer, between a surface of the surface treatment film of the coated metal material and an electrode ; holding of the water-containing electrolyte material on the surface of the surface treatment film for one minute to one day; electrical conduction from the electrode through the water-containing electrolyte material to the metal surface of the coated metal material to swell the surface treatment film ; and measurement of the swelling of the surface treatment film ; characterized in that the water penetration enhancer is made of clay minerals. treatment of interposing a water-containing electrolyte material comprising a supporting electrolyte, and a water penetration enhancer, between a surface of the surface treatment film of the coated metal material and an electrode ; holding of the water-containing electrolyte material on the surface of the surface treatment film for one minute to one day; electrical conduction from the electrode through the water-containing electrolyte material to the metal surface of the coated metal material to swell the surface treatment film ; and measurement of the swelling of the surface treatment film ; characterized in that the water penetration enhancer is made of clay minerals.
A method comprising: arranging multiple regions of application functionalities and information for display substantially in-line within a designated area of a user interface; calculating a pixel size for each region of the multiple regions of application functionalities and information for display; summing, from the calculation of the pixel size for each region, pixel amounts to identify a total pixel size; identifying an amount of an available space to the user interface within the designated area of the user interface; comparing the total pixel size to the amount of the available space; and adjusting a visual display of at least one of the multiple regions of application functionalities and information according to one or more predetermined scaling priorities based on the comparing to accommodate the available space within the designated area of the user interface, wherein the scaling priorities instruct the application to perform a series of truncation operations on a first region of the multiple regions of application functionalities and information to a first minimum threshold prior to performing a truncation operation on a second region of the multiple regions of application functionalities and information. arranging multiple regions of application functionalities and information for display substantially in-line within a designated area of a user interface; calculating a pixel size for each region of the multiple regions of application functionalities and information for display; summing, from the calculation of the pixel size for each region, pixel amounts to identify a total pixel size; identifying an amount of an available space to the user interface within the designated area of the user interface; comparing the total pixel size to the amount of the available space; and adjusting a visual display of at least one of the multiple regions of application functionalities and information according to one or more predetermined scaling priorities based on the comparing to accommodate the available space within the designated area of the user interface, wherein the scaling priorities instruct the application to perform a series of truncation operations on a first region of the multiple regions of application functionalities and information to a first minimum threshold prior to performing a truncation operation on a second region of the multiple regions of application functionalities and information.
A storage container for a storage and dispensing station for small piece goods, comprising: a housing enclosing a receiving space for small piece goods, including a circular cylindrical section and a bottom surface having a dispensing opening , a separating device arranged in the circular cylindrical section of the housing including at least one channel for receiving at least one small piece good and an annular groove for receiving a positioning means , and a retaining means including a positioning means and a retaining section , the positioning means engaging in the annular groove of the separating device and fixing the retaining means vertically, and including a holding means which secures the retaining means against a concurrent rotation with the separating device and aligns the retaining section with the dispensing opening by the holding means interacting with the circular cylindrical section of the housing . a housing enclosing a receiving space for small piece goods, including a circular cylindrical section and a bottom surface having a dispensing opening , a separating device arranged in the circular cylindrical section of the housing including at least one channel for receiving at least one small piece good and an annular groove for receiving a positioning means , and at least one channel for receiving at least one small piece good and an annular groove for receiving a positioning means , and a retaining means including a positioning means and a retaining section , the positioning means engaging in the annular groove of the separating device and fixing the retaining means vertically, and including a holding means which secures the retaining means against a concurrent rotation with the separating device and aligns the retaining section with the dispensing opening by the holding means interacting with the circular cylindrical section of the housing . a positioning means and a retaining section , the positioning means engaging in the annular groove of the separating device and fixing the retaining means vertically, and including a holding means which secures the retaining means against a concurrent rotation with the separating device and aligns the retaining section with the dispensing opening by the holding means interacting with the circular cylindrical section of the housing .
A process for producing a label lid , the process comprising the steps of (a) providing a facestock layer ; (b) coating a removable adhesive layer to a first side of the facestock layer ; and (c) laminating the first side of the facestock layer to a first side of a heat-seal layer ; further comprising applying a release coating to the first side of heat-seal layer before laminating step (c), wherein the removable adhesive layer does not comprise a release liner. (a) providing a facestock layer ; (b) coating a removable adhesive layer to a first side of the facestock layer ; and (c) laminating the first side of the facestock layer to a first side of a heat-seal layer ; further comprising applying a release coating to the first side of heat-seal layer before laminating step (c), wherein the removable adhesive layer does not comprise a release liner. further comprising applying a release coating to the first side of heat-seal layer before laminating step (c), wherein the removable adhesive layer does not comprise a release liner.
A fire sensor including a layer of fibres , said fibres having an electromagnetic property changeable upon contact with fire and being individually connectible to detection means to detect any said change in electromagnetic property, said fibres being arranged to cross one another at intersections , whereby a said change in electromagnetic property detected at each of two intersecting fibres is indicative of a fire at the location of the intersection of said two fibres .
A fat-soluble extract of Brucea javanica L. Merr for use in promoting peripheral nerve regeneration.
Stretch-bonded laminate with an elastic film and at least one first nonwoven web comprising a stretch direction along which the first nonwoven web is gathered due to the elastic relaxation of the elastic film and a transverse direction, further comprising in an alternating sequence along the transverse direction elongated structures forming first rows and and bonding areas forming second rows extending in the stretch direction, wherein said elongated structures are elongated along an angle of less than 5° to the transverse direction with the elongated structures being attributed to perforations of the elastic film , wherein the elongated structures and the bonding areas are together aligned along columns extending in the transverse direction wherein the first and second rows are separated by lines extending in the stretch direction with the first nonwoven web lying unconnected on the uninterrupted elastic film , wherein the width of the first rows is more than 1.5 of the width of the second rows measured in the transverse direction, wherein the distance between successive first rows is between 1 mm and 5 mm. wherein said elongated structures are elongated along an angle of less than 5° to the transverse direction with the elongated structures being attributed to perforations of the elastic film , wherein the elongated structures and the bonding areas are together aligned along columns extending in the transverse direction wherein the first and second rows are separated by lines extending in the stretch direction with the first nonwoven web lying unconnected on the uninterrupted elastic film , wherein the width of the first rows is more than 1.5 of the width of the second rows measured in the transverse direction, wherein the distance between successive first rows is between 1 mm and 5 mm.
A method of analyzing an analyte in a sample using mass spectrometry, said method comprising: (a) measuring a fragmentation spectrum for said analyte using a mass spectrometry technique providing a mass accuracy equal to or less than 75 ppm; wherein said fragmentation spectrum comprises a plurality of peaks corresponding to measured mass-to-charge ratios of fragment ions from said sample; wherein said fragmentation spectrum comprises a signal parameter corresponding to said peaks of said fragmentation spectrum; (b) providing a candidate molecule for analysis of said fragmentation spectrum of said analyte; (c) determining putative fragment masses for all non-repeating combinations of atoms of the molecular formula of the candidate molecule; and (d) comparing the putative fragment masses of said candidate molecule to the measured mass-to-charge ratios from said fragmentation spectrum to determine a signal parameter similarity of the fragmentation spectrum that matches the putative fragment masses of said candidate molecule, thereby analyzing said analyte using mass spectrometry, wherein the signal parameter is total ion current (TIC) corresponding to the sum of said peaks of said fragmentation spectrum, and the signal parameter similarity is the percentage of the TIC corresponding to peaks of the fragmentation spectrum that match the putative fragment masses of said candidate molecule. (a) measuring a fragmentation spectrum for said analyte using a mass spectrometry technique providing a mass accuracy equal to or less than 75 ppm; wherein said fragmentation spectrum comprises a plurality of peaks corresponding to measured mass-to-charge ratios of fragment ions from said sample; wherein said fragmentation spectrum comprises a signal parameter corresponding to said peaks of said fragmentation spectrum; (b) providing a candidate molecule for analysis of said fragmentation spectrum of said analyte; (c) determining putative fragment masses for all non-repeating combinations of atoms of the molecular formula of the candidate molecule; and (d) comparing the putative fragment masses of said candidate molecule to the measured mass-to-charge ratios from said fragmentation spectrum to determine a signal parameter similarity of the fragmentation spectrum that matches the putative fragment masses of said candidate molecule, thereby analyzing said analyte using mass spectrometry, wherein the signal parameter is total ion current (TIC) corresponding to the sum of said peaks of said fragmentation spectrum, and the signal parameter similarity is the percentage of the TIC corresponding to peaks of the fragmentation spectrum that match the putative fragment masses of said candidate molecule.
A patient interface configured to deliver a flow of positive pressure respiratory gas to an entrance of a patient's airways including at least an entrance of the patient's nares, the patient interface being configured to maintain a therapy pressure in a range of about 4 cmH 2 O to about 30 cmH 2 O above ambient pressure in use, throughout the patient's respiratory cycle, while the patient is sleeping, to ameliorate sleep disordered breathing, the patient interface comprising: an elastomeric support wall forming at least part of a plenum chamber configured to receive the flow of positive pressure respiratory gas; an elastomeric support flange positioned at an end of the elastomeric support wall and extending radially inward from the support wall, the support flange comprising a flap portion at a central superior region of the support flange that extends further in the radially inward direction than the rest of the support flange ; and a foam cushion mounted on the support flange , the foam cushion being configured to form a seal with the patient's face and comprising an attachment surface that is in contact with an outer surface of the support flange , the outer surface of the support flange at the flap portion having a positive curvature, the flap portion being between a first pair of negative curvature regions of the support flange . an elastomeric support wall forming at least part of a plenum chamber configured to receive the flow of positive pressure respiratory gas; an elastomeric support flange positioned at an end of the elastomeric support wall and extending radially inward from the support wall, the support flange comprising a flap portion at a central superior region of the support flange that extends further in the radially inward direction than the rest of the support flange ; and a foam cushion mounted on the support flange , the foam cushion being configured to form a seal with the patient's face and comprising an attachment surface that is in contact with an outer surface of the support flange , the outer surface of the support flange at the flap portion having a positive curvature, the flap portion being between a first pair of negative curvature regions of the support flange .
An apparatus for use with a gas lift valve on tubing in a wellbore, the gas lift valve having a pressure-sensitive valve and a check valve , the pressure-sensitive valve configured to control communication from an inlet toward an outlet , the inlet exposed to one of annulus pressure of the wellbore and tubing pressure of the tubing, the outlet exposed to the other of the annulus pressure and the tubing pressure, the check valve configured to prevent communication from the outlet toward the inlet , the apparatus comprising: a piston disposed in a housing , the piston , in use, disposed between the check valve and the outlet and exposed to a pressure differential between the annulus pressure (A P ) and the tubing pressure (T P ), the piston movable from a closed condition to an opened condition relative to the outlet ; a first connection holding the piston in the closed condition and configured to release hold of the piston in response to a predetermined level of the pressure differential; and a second connection for connecting the piston to the check valve of the gas lift valve , the second connection with the piston in the first position holding the check valve open, the second connection with the piston in the second position releasing the hold of the check valve to close. a piston disposed in a housing , the piston , in use, disposed between the check valve and the outlet and exposed to a pressure differential between the annulus pressure (A P ) and the tubing pressure (T P ), the piston movable from a closed condition to an opened condition relative to the outlet ; a first connection holding the piston in the closed condition and configured to release hold of the piston in response to a predetermined level of the pressure differential; and a second connection for connecting the piston to the check valve of the gas lift valve , the second connection with the piston in the first position holding the check valve open, the second connection with the piston in the second position releasing the hold of the check valve to close.
Semiconductor device , comprising: - a substrate body , - an environmental sensor , - a cap body , and - a volume of gas , wherein: - the environmental sensor and the volume of gas are arranged between the substrate body and the cap body in a vertical direction (z) which is perpendicular to the main plane of extension of the substrate body , - the substrate body and the cap body are connected via a bonding material , and - at least one channel between the substrate body and the cap body connects the volume of gas with the environment of the semiconductor device such that the channel is permeable for gases, characterized in that - the bonding material comprises a porous polymer so that a wall comprising the same material as the bonding material , having a thickness of less than 10μm, and being arranged in the at least one channel is permeable for the gases. - a substrate body , - an environmental sensor , - a cap body , and - a volume of gas , wherein: - the environmental sensor and the volume of gas are arranged between the substrate body and the cap body in a vertical direction (z) which is perpendicular to the main plane of extension of the substrate body , - the substrate body and the cap body are connected via a bonding material , and - at least one channel between the substrate body and the cap body connects the volume of gas with the environment of the semiconductor device such that the channel is permeable for gases, characterized in that - the bonding material comprises a porous polymer so that a wall comprising the same material as the bonding material , having a thickness of less than 10μm, and being arranged in the at least one channel is permeable for the gases.
A pressure sensor with a circuit board , with a measuring element which is arranged on the circuit board and with at least one first fluid channel which is connected to the measuring element and which departing from a first side of the circuit board extends through an opening in the circuit board to a second side of the circuit board and is connected to the measuring element at this second side of the circuit board , characterised in that two measuring elements for the pressure measurement are arranged on the circuit board , between which measuring elements the circuit board comprises a recess which extends up to the edge of the circuit board.
Dropping device for test specimens (P) for detection systems (M) for multi-head weighing machines, comprising: at least one magazine adapted to receive at least one test specimen (P) therein, wherein at least two test specimen storage openings (4, 4'; 40, 40') are provided in the magazine , which openings extend through the magazine from top to bottom; a limiting device arranged below the magazine , characterized in that the limiting deice has a recess having at least the same cross-section as a test specimen (P); and that the dropping device contains a drive adapted to move the magazine so that different test specimen storage openings (4, 4'; 40, 40') can be positioned above the recess of the limiting device . at least one magazine adapted to receive at least one test specimen (P) therein, wherein at least two test specimen storage openings (4, 4'; 40, 40') are provided in the magazine , which openings extend through the magazine from top to bottom; a limiting device arranged below the magazine , characterized in that the limiting deice has a recess having at least the same cross-section as a test specimen (P); and that the dropping device contains a drive adapted to move the magazine so that different test specimen storage openings (4, 4'; 40, 40') can be positioned above the recess of the limiting device .
A heat pump device, comprising a refrigerant circuit with a compressor , a low pressure sensor and a high pressure sensor , and with an injection, which can be active or inactive, wherein the high pressure sensor and the low pressure sensor are arranged upstream and downstream of the compressor and detect the pressure (p_C, p_0) in the refrigerant circuit upstream and downstream of the compressor , and a controller with a heat quantity unit for evaluating the quantity of heat generated by the heat pump device based on the signals from the low pressure sensor and the high pressure sensor , wherein the quantity of heat is determined by Q pkt C = p_0 * a − b * p_C * 1 − E + p_0 * C + p_C * d + e * E , wherein p_C indicates a condensing pressure, p_0 indicates an evaporating pressure and E (E=1; E=0) indicates that the injection is active or inactive, wherein a, b, C, d, e represent factors which can be determined on a test stand, the evaporating pressure p_0 is determined by the low pressure sensor and the condensing pressure p_C is determined by the high pressure sensor. wherein the high pressure sensor and the low pressure sensor are arranged upstream and downstream of the compressor and detect the pressure (p_C, p_0) in the refrigerant circuit upstream and downstream of the compressor , and a controller with a heat quantity unit for evaluating the quantity of heat generated by the heat pump device based on the signals from the low pressure sensor and the high pressure sensor , wherein the quantity of heat is determined by Q pkt C = p_0 * a − b * p_C * 1 − E + p_0 * C + p_C * d + e * E , wherein p_C indicates a condensing pressure, p_0 indicates an evaporating pressure and E (E=1; E=0) indicates that the injection is active or inactive, wherein a, b, C, d, e represent factors which can be determined on a test stand, the evaporating pressure p_0 is determined by the low pressure sensor and the condensing pressure p_C is determined by the high pressure sensor.
A system for plasma cutting, the system comprising: a plasma cutting table ; a gantry movable along the plasma cutting table in a first direction; a torch carriage movable along the gantry in a second direction that is perpendicular to the first direction; characterized by a torch holder attached to the torch carriage and comprising a motor having a hollow shaft rotor ; and a plasma cutting torch attached to the hollow shaft rotor for 360 degree rotation by the hollow shaft rotor around an axis of the plasma cutting torch . a plasma cutting table ; a gantry movable along the plasma cutting table in a first direction; a torch carriage movable along the gantry in a second direction that is perpendicular to the first direction; characterized by a torch holder attached to the torch carriage and comprising a motor having a hollow shaft rotor ; and a plasma cutting torch attached to the hollow shaft rotor for 360 degree rotation by the hollow shaft rotor around an axis of the plasma cutting torch .
An aerosol-generating component for an aerosol-generating article, the component comprising: a combustible heat source ; an aerosol-forming substrate ; and a heat-transfer element disposed between the combustible heat source and the aerosol-forming substrate , wherein the heat-transfer element comprises a cup-shaped receptacle defining a cavity and the aerosol-forming substrate forms a coating on at least a portion of an inner surface of the cup-shaped receptacle. a combustible heat source ; an aerosol-forming substrate ; and a heat-transfer element disposed between the combustible heat source and the aerosol-forming substrate , wherein the heat-transfer element comprises a cup-shaped receptacle defining a cavity and the aerosol-forming substrate forms a coating on at least a portion of an inner surface of the cup-shaped receptacle.