mhurhangee/patent-ind-claim-en huggingface dataset:
A nanopore cell , comprising: a substrate ; a conductive layer disposed overlying a top portion of the substrate ; a first dielectric layer overlying the conductive layer , the first dielectric laye having an opening exposing a portion of the conductive layer , an electrode layer disposed in the opening of the first dielectric layer , the electrode layer having an overhang portion extending over the first dielectric layer , a second dielectric layer disposed on the first dielectric layer , a cavity in the second dielectric layer , the cavity exposing at least a portion of the electrode layer , the cavity including an undercut portion of the second dielectric layer above the overhang portion of the electrode , and a well formed by the cavity , the well having a bottom base formed by a top surface of the electrode layer and well sidewalls formed by the second dielectric layer . a substrate ; a conductive layer disposed overlying a top portion of the substrate ; a first dielectric layer overlying the conductive layer , the first dielectric laye having an opening exposing a portion of the conductive layer , an electrode layer disposed in the opening of the first dielectric layer , the electrode layer having an overhang portion extending over the first dielectric layer , a second dielectric layer disposed on the first dielectric layer , a cavity in the second dielectric layer , the cavity exposing at least a portion of the electrode layer , the cavity including an undercut portion of the second dielectric layer above the overhang portion of the electrode , and a well formed by the cavity , the well having a bottom base formed by a top surface of the electrode layer and well sidewalls formed by the second dielectric layer .
A refrigeration cycle apparatus comprising a refrigeration cycle in which a refrigerant flows in an order of a compressor , a condenser , an expansion mechanism , and an evaporator , the compressor comprising: a casing ; a compression mechanism that is disposed inside the casing, compresses a sucked refrigerant, and discharges the compressed refrigerant to a refrigerant channel (R1, R2, or R3) formed in an inner space of the casing; a discharge tube through which the compressed refrigerant flows from the inner space of the casing to an outside; and characterised by comprising a first temperature sensor including a temperature sensing portion , the temperature sensing portion being disposed in the refrigerant channel and directly measuring a temperature of the refrigerant; and a second temperature sensor that is disposed at a different position from the first temperature sensor and measures a temperature of one of a surface of the discharge tube, an inner space of the discharge tube, and a surface of the casing, wherein the refrigeration cycle apparatus further comprises a calculation unit configured to calculate a temperature of a refrigerant discharged from the compression mechanism, by using the first temperature sensor and the second temperature sensor. a casing ; a compression mechanism that is disposed inside the casing, compresses a sucked refrigerant, and discharges the compressed refrigerant to a refrigerant channel (R1, R2, or R3) formed in an inner space of the casing; a discharge tube through which the compressed refrigerant flows from the inner space of the casing to an outside; and characterised by comprising a first temperature sensor including a temperature sensing portion , the temperature sensing portion being disposed in the refrigerant channel and directly measuring a temperature of the refrigerant; and a second temperature sensor that is disposed at a different position from the first temperature sensor and measures a temperature of one of a surface of the discharge tube, an inner space of the discharge tube, and a surface of the casing, wherein the refrigeration cycle apparatus further comprises a calculation unit configured to calculate a temperature of a refrigerant discharged from the compression mechanism, by using the first temperature sensor and the second temperature sensor.
Anti-corrosion varnish with a binder based on polyurethane and with zinc as anti-corrosion solids fraction, characterized in that the binder is a moisture-curing one-component polyurethane system and the varnish based on the volume without solvent contains a fraction of the polyurethane-based binder of approximately 30 vol%, the varnish additionally containing hard-material particles composed of a titanium-boron compound.
An armature for a brassiere in the form of a profile with two branches that are preferably asymmetrical, having a 3D geometric configuration such that the central axis corresponding to the succession of the geometric centers or the centers of gravity of the successive perpendicular sections for a corresponding same branch is not located in the same plane, such that each of the branches is inclined by a certain angle of inclination relative to one another, characterized in that the section of each of the branches of the profile is a polygon having a triangular shape, with at least one of the sides being curved or curvilinear, and in that the angle of inclination of the two branches is between 5 and 40 degrees, and the armature comprising an inner side able, under usage conditions, to come in contact with the body of the user, an outer side opposite the inner side and, under usage conditions, turned away from the body of the user, the polygon being defined by at least one side constituting the inner side , an outer side and at least one third side protruding on the inner side and intended to support the breast of the user under usage conditions.
A non-viral delivery complex, comprising: A, a cationic core which is a nanoparticle comprising: (i) a peptide of formula A-B-C wherein A is a polycationic nucleic acid binding component, B is a spacer element that is susceptible to cleavage within a cell, and C is a cell surface receptor binding component, (ii) a nucleic acid, and (iii) a cationic lipid, B, an anionic coating which is a liposome surrounding the cationic core and which comprises lipids previously extracted from a plasma membrane of a subject's cells, optionally red blood cells, or exosomes. A, a cationic core which is a nanoparticle comprising: (i) a peptide of formula A-B-C wherein A is a polycationic nucleic acid binding component, B is a spacer element that is susceptible to cleavage within a cell, and C is a cell surface receptor binding component, (ii) a nucleic acid, and (iii) a cationic lipid, (i) a peptide of formula A-B-C wherein A is a polycationic nucleic acid binding component, B is a spacer element that is susceptible to cleavage within a cell, and C is a cell surface receptor binding component, (ii) a nucleic acid, and (iii) a cationic lipid, B, an anionic coating which is a liposome surrounding the cationic core and which comprises lipids previously extracted from a plasma membrane of a subject's cells, optionally red blood cells, or exosomes.
A method for producing a cell-containing base, the method comprising: discharging a cell suspension in a form of a liquid droplet with a liquid droplet discharging unit onto a base that comprises at least one cell-containing region; counting a number of cells contained in the liquid droplet with a plurality of sensors from two or more directions while the liquid droplet is flying into the cell-containing region; and landing the liquid droplet in the at least one cell-containing region in a manner that a predetermined number of cells are located in the at least one cell-containing region, wherein cell cycles of the cells contained in the cell suspension are measured by quantifying nuclear phases of the cells due to cell division, wherein based on the measured cell cycles, a number of nucleic acids having a specific base sequence is estimated from a number of cells contained in the cell suspension, and wherein based on the estimated number of nucleic acids having a specific base sequence, a number of nucleic acids having a specific base sequence located in each of the at least one cell-containing region is calculated. discharging a cell suspension in a form of a liquid droplet with a liquid droplet discharging unit onto a base that comprises at least one cell-containing region; counting a number of cells contained in the liquid droplet with a plurality of sensors from two or more directions while the liquid droplet is flying into the cell-containing region; and landing the liquid droplet in the at least one cell-containing region in a manner that a predetermined number of cells are located in the at least one cell-containing region, wherein cell cycles of the cells contained in the cell suspension are measured by quantifying nuclear phases of the cells due to cell division, wherein based on the measured cell cycles, a number of nucleic acids having a specific base sequence is estimated from a number of cells contained in the cell suspension, and wherein based on the estimated number of nucleic acids having a specific base sequence, a number of nucleic acids having a specific base sequence located in each of the at least one cell-containing region is calculated.
Inhaler , preferably for insertion into a nostril , in particular a nostril of a horse , with a pressure generator comprising a tensioning device for driving the pressure generator , wherein the tensioning device is tensionable by moving a tensioning part, in particular an actuating lever , from a first position, in particular a resting position, of the tensioning part into a second position, in particular a pressurizing position, of the tensioning part, characterized in that the tensioning device remains tensioned in the case of a movement of the tensioning part from the second position back into the first position, and that the inhaler is configured to release the tensioned tensioning device , to trigger the pressure generator and/or the discharge of a pharmaceutical agent preparation , by moving of the tensioning part from the second position back into the first position and from the first position in the direction of the second position again.
An impregnation plant for internally hollow cylindrical components of electric motors, said plant comprising a plurality of working stations arranged linearly and sequentially one after another, said working stations being managed and controlled by a central processing unit, said plant comprising: - a plurality of support devices for each component , wherein each support device rotatably supports the respective component and is configured to be inserted into the individual working stations that form the plant ; - one or more heating stations , configured to heat each component to a predefined temperature; - one or more impregnation stations , arranged downstream of the heating stations and configured to cover at least a portion of each component with an impregnating substance; - at least one gelling station and at least one baking station, arranged in sequence to each other and downstream of the impregnation stations , configured to fix the impregnating substance on each component ; and - a plurality of motor-driven means configured to impart both a rotatory motion, in both directions of rotation, and a tilting motion, in both directions with respect to a predefined plane, to each component mounted on the respective support device when said support device is inserted into the working stations of said plant , the plant being characterized in that each support device is provided with a spring collet , in turn provided with blocks which clamp the component onto the inner diameter of the respective cylindrical body , said spring collet entirely crossing the cylindrical body of the component , so as to rest on both of its respective circumferential ends. - a plurality of support devices for each component , wherein each support device rotatably supports the respective component and is configured to be inserted into the individual working stations that form the plant ; - one or more heating stations , configured to heat each component to a predefined temperature; - one or more impregnation stations , arranged downstream of the heating stations and configured to cover at least a portion of each component with an impregnating substance; - at least one gelling station and at least one baking station, arranged in sequence to each other and downstream of the impregnation stations , configured to fix the impregnating substance on each component ; and - a plurality of motor-driven means configured to impart both a rotatory motion, in both directions of rotation, and a tilting motion, in both directions with respect to a predefined plane, to each component mounted on the respective support device when said support device is inserted into the working stations of said plant ,
A battery module, wherein the battery module comprises: a plurality of batteries , arranged sequentially along a thickness direction (T), wherein a gap exists between every two adjacent batteries ; and a first side plate , disposed on one side of the plurality of batteries in a width direction (W), wherein a plurality of notches (N) and a plurality of flanges (F) are formed on the first side plate , each notch (N) corresponds to a location of the gap between every two adjacent batteries , and each flange (F) is bent from one side of a corresponding notch (N) and extends into the corresponding gap between the two adjacent batteries to separate the two adjacent batteries . a plurality of batteries , arranged sequentially along a thickness direction (T), wherein a gap exists between every two adjacent batteries ; and a first side plate , disposed on one side of the plurality of batteries in a width direction (W), wherein a plurality of notches (N) and a plurality of flanges (F) are formed on the first side plate , each notch (N) corresponds to a location of the gap between every two adjacent batteries , and each flange (F) is bent from one side of a corresponding notch (N) and extends into the corresponding gap between the two adjacent batteries to separate the two adjacent batteries .
Centrifugal pump for delivering liquids in a motor vehicle, having a housing , having an intake duct and an outlet duct in the housing , having a driven rotor , which can rotate in the housing , having rotor blades , which project from a supporting disk of the rotor , and having a cover disk , which connects free ends of rotor blades , and having a gap seal between the cover disc and a housing part of the housing , which housing part lies opposite the cover disk , wherein in each case at least one projecting annular web (22 - 24, 28, 29) of the gap seal is arranged on the cover disk and on the housing part , and wherein the web of the housing part is offset relative to the web of the cover disk , wherein the gap seal has respective annular ducts close to the intake duct and close to the outlet duct , said ducts being arranged perpendicularly to the plane of the supporting disk of the rotor , wherein the annular ducts are connected to one another by a transverse duct and wherein the webs (22 - 24) project into the transverse duct , characterized in that webs (22 - 24) arranged opposite one another each project over half the height of the gap seal .
Sensor having a substrate having a first side and an opposite second side , wherein at least one waveguide containing or consisting of diamond is arranged on the first side, wherein at least one NV centre is arranged in the waveguide , the substrate contains or consists of silicon oxide and/or silicon nitride and/or silicon oxynitride and/or silicon carbide and/or silicon, the substrate contains a component selected from at least one conductor loop and/or at least one antenna and/or at least one transistor and/or at least one capacitance and/or at least one resistor and/or at least one optoelectronic component, and the diamond layer is homoepitaxially produced on an auxiliary substrate and bonded onto the substrate and the diamond layer contains monocrystalline diamond, characterized in that the sensor contains at least one electrode on the top side of the waveguide , an electric field being able to be generated by means of said at least one electrode at least at the location of the NV centre .
Method for identifying and verifying control software of a rail vehicle, - in which the control software is formed by functions (FKT_1, ...), wherein each function (FKT_1, ...) performs a task respectively assigned thereto, - in which the functions (FKT_1, ...), in their interconnected entirety, form a structure (STR) of the control software, - in which a function-dependent checksum (HFKT_1, ...) is created for each function (FKT_1, ...), - in which a structure-dependent checksum (HSTR) is created for the structure (STR), - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1, ...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL), - in which a version number of the control software, which is based on the overall checksum (HGES_EU, HGES_ZLL) of the control software, is displayed to the rail vehicle driver for monitoring purposes. - in which the control software is formed by functions (FKT_1, ...), wherein each function (FKT_1, ...) performs a task respectively assigned thereto, - in which the functions (FKT_1, ...), in their interconnected entirety, form a structure (STR) of the control software, - in which a function-dependent checksum (HFKT_1, ...) is created for each function (FKT_1, ...), - in which a structure-dependent checksum (HSTR) is created for the structure (STR), - in which an overall checksum (HGES) for the control software is created from the function-dependent checksums (HFKT_1, ...) and from the structure-dependent checksum (HSTR), - such that the overall checksum (HGES) identifies and verifies the control software for authorization in a country (EU, ZLL), - in which a version number of the control software, which is based on the overall checksum (HGES_EU, HGES_ZLL) of the control software, is displayed to the rail vehicle driver for monitoring purposes.
Plug connector housing, having a sleeve housing and a screw attachment , wherein the sleeve housing has an outer surface of circular cross section with a circumferential first groove formed therein and wherein the screw attachment has an inner surface of circular cross section with a circumferential second groove formed therein, and wherein the plug connector housing further has a circlip. which, in the assembled state, is arranged with its inner circumference in the first groove and with its outer circumference in the second groove in order to hold the screw attachment rotatably on the sleeve housing , wherein the first groove , within the scope of manufacturing tolerances, has a depth which corresponds at least to a height (H) of the profile of the circlip , such that the circlip can be received fully in the first groove , characterized in that the screw attachment , in order to facilitate assembly, has on the inside at its end facing the sleeve housing a chamfer by way of which the circlip pre-assembled in the first groove , during fitting of the screw attachment onto the sleeve housing , is initially elastically compressible and, in the final state, can be latched into the second groove .
System for determining the color of teeth, which comprises a 2D or 3D camera wherein the system is adapted to acquire images which are captured by the camera , and an attachment , wherein the attachment comprises a spacer having a connecting means for fitting the attachment to the camera , wherein the spacer comprises an aperture via which the camera is adapted to capture an image of the teeth, wherein the spacer is adapted to create a distance between a capture device of the camera and the tooth surface, and wherein the spacer is adapted to create a distance between the capture device of the camera and the aperture , wherein the camera has a normal recording mode without the use of the attachment, and a color measurement mode for use with the attachment for measuring the color of the tooth, characterized in that the system is adapted to recognize the presence of the attachment on the camera on the basis of changes in the image field captured by the camera and to switch to a color measurement mode when those changes in the image field are detected.
A process for densifying an annular porous structure comprising: flowing a reactant gas into an inner diameter (ID) volume and through an ID surface of the annular porous structure ; flowing the reactant gas through an outer diameter (OD) surface of the annular porous structure and into an OD volume ; flowing the reactant gas from the OD volume through the OD surface of the annular porous structure ; and flowing the reactant gas through the ID surface of the annular porous structure (110; 310) and into the ID volume ; characterised by enclosing the annular porous structure in a graphite susceptor having openings for reactant gas feed and for reactant gas exhaust; energizing a reversing valve ; and unenergizing the reversing valve to reverse the function of the openings for reactant gas feed and for reactant gas exhaust to reverse the reactant gas flow direction and pressure differential with respect to the annular porous structure in a single processing cycle. flowing a reactant gas into an inner diameter (ID) volume and through an ID surface of the annular porous structure ; flowing the reactant gas through an outer diameter (OD) surface of the annular porous structure and into an OD volume ; flowing the reactant gas from the OD volume through the OD surface of the annular porous structure ; and flowing the reactant gas through the ID surface of the annular porous structure (110; 310) and into the ID volume ; characterised by enclosing the annular porous structure in a graphite susceptor having openings for reactant gas feed and for reactant gas exhaust; energizing a reversing valve ; and unenergizing the reversing valve to reverse the function of the openings for reactant gas feed and for reactant gas exhaust to reverse the reactant gas flow direction and pressure differential with respect to the annular porous structure in a single processing cycle.