mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous fluid filter assembly , comprising: a cap ; a bowl engaging the cap and defining a filter volume; a filter element disposed in the filter volume, the filter element being sealed against an interior of the cap and an interior of the bowl to provide an unfiltered volume and a filtered volume ; an inlet in fluid communication with the unfiltered volume ; an outlet in fluid communication with the filtered volume via a pickup section ; the pickup section comprising a pick-up section inlet extending into the filtered volume and an air-metering orifice , wherein the pick-up section inlet is located below the air-metering orifice , characterised in that a diameter of the air metering orifice is 0.127 to 0.1778mm. a cap ; a bowl engaging the cap and defining a filter volume; a filter element disposed in the filter volume, the filter element being sealed against an interior of the cap and an interior of the bowl to provide an unfiltered volume and a filtered volume ; an inlet in fluid communication with the unfiltered volume ; an outlet in fluid communication with the filtered volume via a pickup section ; the pickup section comprising a pick-up section inlet extending into the filtered volume and an air-metering orifice , wherein the pick-up section inlet is located below the air-metering orifice , characterised in that a diameter of the air metering orifice is 0.127 to 0.1778mm.
A material for providing an electrically conducting contact layer, the material comprising a base material being any one of Ag, Ni, Co, a first metal salt of any one thereof, or an alloy of any one or more thereof, wherein the material further comprises In within a range of 0.01 at.% to 10 at.% and Sn within a range of 0.01 at.% to 10 at.% and at least one element other than the base material selected from the group including Au, Ag, Pd, Pt, Rh, Ir, Ru, Os, Re, or any combination thereof, within a range of 0.01 at.% to 10 at.%.
A data security system including at least a first party and a second party that are mutually coupled via a data communication arrangement, wherein the data communication arrangement is operable to provide for user authentications and/or user sign-in, wherein: (i) the first and second parties are provided with identical or mutually compatible copies of at least one digital key code list that includes keys and indices referencing the keys; (ii) the first party is operable to deliver to the second party an authentication message including, instead of a key, an index of the key, a unique identifier (ID) of a digital key code list from which the key is to be derived, and additional information indicative of at least one of: a unique user ID associated with the first party, a session token previously-received from the second party, a date and time at which an attempt for user authentications and/or user sign-in is made, wherein the additional information is provided in an encrypted form; and (iii) the first and second parties are operable to use, when performing data communication therebetween, for providing user authentications and/or user sign-in, the key that is derived from the digital key code list based upon the index included within the authentication message, and to dispose of the key after use, wherein the key is arranged to be usable only once between the first and second parties. (i) the first and second parties are provided with identical or mutually compatible copies of at least one digital key code list that includes keys and indices referencing the keys; (ii) the first party is operable to deliver to the second party an authentication message including, instead of a key, an index of the key, a unique identifier (ID) of a digital key code list from which the key is to be derived, and additional information indicative of at least one of: a unique user ID associated with the first party, a session token previously-received from the second party, a date and time at which an attempt for user authentications and/or user sign-in is made, wherein the additional information is provided in an encrypted form; and (iii) the first and second parties are operable to use, when performing data communication therebetween, for providing user authentications and/or user sign-in, the key that is derived from the digital key code list based upon the index included within the authentication message, and to dispose of the key after use, wherein the key is arranged to be usable only once between the first and second parties.
A method for functional imaging of the brain by ultrasonic waves, comprising the following steps: (a) a vascular imaging step during which a brain of a human or animal subject is imaged by ultrasonic imaging, in order to obtain a vascular image to be studied (VI0), the vascular image to be studied being representative of the blood flows in at least one portion of the brain, said subject belonging to a certain class of subjects, (b) a localization step, during which, by shape recognition, at least one portion of the vascular image to be studied (VI0) is automatically compared with a brain vascular atlas (VA) corresponding to said class of subjects, and the vascular image to be studied (VI0) is thereby located in the brain vascular atlas (VA), (c) an identification step during which a brain functional atlas (FA) corresponding to said brain vascular atlas (VA) and comprising brain functional areas located in this brain vascular atlas (VA) is used, so that at least one brain functional area is identified on the vascular image to be studied (VI0). (a) a vascular imaging step during which a brain of a human or animal subject is imaged by ultrasonic imaging, in order to obtain a vascular image to be studied (VI0), the vascular image to be studied being representative of the blood flows in at least one portion of the brain, said subject belonging to a certain class of subjects, (b) a localization step, during which, by shape recognition, at least one portion of the vascular image to be studied (VI0) is automatically compared with a brain vascular atlas (VA) corresponding to said class of subjects, and the vascular image to be studied (VI0) is thereby located in the brain vascular atlas (VA), (c) an identification step during which a brain functional atlas (FA) corresponding to said brain vascular atlas (VA) and comprising brain functional areas located in this brain vascular atlas (VA) is used, so that at least one brain functional area is identified on the vascular image to be studied (VI0).
A method comprising: transmitting , from a first network device, a first reference signal to a terminal device served by a second network device; receiving , at the first network device , a second reference signal from the second network device; determining , at the first network device , a first time difference between a time at which the first reference signal is transmitted and a time at which the second reference signal is received; and transmitting , from the first network device , information on the first time difference to a location server. transmitting , from a first network device, a first reference signal to a terminal device served by a second network device; receiving , at the first network device , a second reference signal from the second network device; determining , at the first network device , a first time difference between a time at which the first reference signal is transmitted and a time at which the second reference signal is received; and transmitting , from the first network device , information on the first time difference to a location server.
A solid electrolytic capacitor comprising: a capacitor element including an anode electrode foil and a cathode electrode foil wound together with a separator therebetween; a solid electrolyte layer consisting of a conductive polymer that is formed inside the capacitor element by impregnating the capacitor element with a dispersion including conductive polymer particles or powder and a solvent; and an ion-conducting substance filled in a void inside the capacitor element formed with the solid electrolyte layer, the ion-conducting substance being characterized by comprising: a mixed solvent including ethylene glycol and γ-butyrolactone; and a solute selected from an ammonium salt, a quaternary ammonium salt, a quaternized amidinium salt, and an amine salt, wherein the solute is a borodisalicylic acid salt; and wherein the ethylene glycol is added at 10 to 80 wt% of the mixed solvent, and the γ-butyrolactone is added at 10 to 60 wt% of the mixed solvent. a capacitor element including an anode electrode foil and a cathode electrode foil wound together with a separator therebetween; a solid electrolyte layer consisting of a conductive polymer that is formed inside the capacitor element by impregnating the capacitor element with a dispersion including conductive polymer particles or powder and a solvent; and an ion-conducting substance filled in a void inside the capacitor element formed with the solid electrolyte layer, the ion-conducting substance being characterized by comprising: a mixed solvent including ethylene glycol and γ-butyrolactone; and a solute selected from an ammonium salt, a quaternary ammonium salt, a quaternized amidinium salt, and an amine salt, wherein the solute is a borodisalicylic acid salt; and wherein the ethylene glycol is added at 10 to 80 wt% of the mixed solvent, and the γ-butyrolactone is added at 10 to 60 wt% of the mixed solvent.
A method for categorizing packets for loading a terminal , in particular a shipping container, wherein the method comprises the steps of: a) acquiring at least one item of object-specific information for each packet of a plurality of packets in a sorter for loading a terminal ; b) categorizing the packets on the basis of the respectively acquired object-specific information, wherein at least one category from a plurality of categories is assigned to each of the packets ; characterized in that a weighting factor which is dependent on the object-specific information or on a further object-specific information of the respective packet is determined during the categorization and is applied to the object-specific information, wherein a weighted object-specific information of the respective packet is obtained. a) acquiring at least one item of object-specific information for each packet of a plurality of packets in a sorter for loading a terminal ; b) categorizing the packets on the basis of the respectively acquired object-specific information, wherein at least one category from a plurality of categories is assigned to each of the packets ;
A process for producing superabsorbents, comprising polymerization of a monomer solution, comprising a) partly neutralized acrylic acid, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the acrylic acid mentioned under a) and e) optionally one or more water-soluble polymers, drying, grinding and classifying the resulting polymer gel, optionally thermally postcrosslinking and cooling the resulting polymer particles, wherein the partly neutralized acrylic acid was prepared in a process, comprising i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, wherein the content of dimeric acrylic acid in the acrylic acid 2 is lower than the content of dimeric acrylic acid in the acrylic acid 1. a) partly neutralized acrylic acid, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the acrylic acid mentioned under a) and e) optionally one or more water-soluble polymers, drying, grinding and classifying the resulting polymer gel, optionally thermally postcrosslinking and cooling the resulting polymer particles, wherein the partly neutralized acrylic acid was prepared in a process, comprising i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, i) preparing an over-neutralized acrylic acid having a degree of neutralization of at least 100.1 mol-% by mixing an acrylic acid 1 and a base and ii) preparing a neutralized acrylic acid having a degree of neutralization from 50 to 85 mol-% by mixing the over-neutralized acrylic acid and an acrylic acid 2, wherein the content of dimeric acrylic acid in the acrylic acid 2 is lower than the content of dimeric acrylic acid in the acrylic acid 1.
An auscultation-assisting tool to be attached for use to a stethoscope , the stethoscope including a chest piece receiving sounds from an examination site , the auscultation-assisting tool comprising: a hollow sheet detachably attached to a diaphragm included in the chest piece , wherein the hollow sheet includes a first film portion detachably attached to the diaphragm ; a second film portion to be brought into contact with the examination site and being deformable in conformity with an irregular surface of the examination site ; and a hollow portion provided hermetically between the first film portion and the second film portion , and wherein a transmission medium that transmits sound is sealed in the hollow portion , wherein the second film portion is a hollow projection formed by vacuum forming, and is configured so that the second film portion can closely fit the irregular surface of the examination site when the second film portion in such a state is brought into contact with the examination site . a hollow sheet detachably attached to a diaphragm included in the chest piece , wherein the hollow sheet includes a first film portion detachably attached to the diaphragm ; a second film portion to be brought into contact with the examination site and being deformable in conformity with an irregular surface of the examination site ; and a hollow portion provided hermetically between the first film portion and the second film portion , and a first film portion detachably attached to the diaphragm ; a second film portion to be brought into contact with the examination site and being deformable in conformity with an irregular surface of the examination site ; and a hollow portion provided hermetically between the first film portion and the second film portion , and wherein a transmission medium that transmits sound is sealed in the hollow portion , wherein the second film portion is a hollow projection formed by vacuum forming, and is configured so that the second film portion can closely fit the irregular surface of the examination site when the second film portion in such a state is brought into contact with the examination site .
A decorative sheet comprising at least a thermoplastic resin substrate layer, a transparent thermoplastic resin layer and a surface protective layer in this order, characterized in that the surface protective layer is formed by laminating at least two layers, at least an outermost layer that is a layer located furthest from the transparent thermoplastic resin layer among layers constituting the surface protective layer contains an ionizing radiation-curable resin containing a multifunctional hexamethylene diisocyanate oligomer at a weight ratio of 60% or more, the arithmetic mean height of a profile curve measured from the outermost layer in accordance with JIS B 0601 is 15 μm or more, and the maximum height of the profile curve is 38 μm or more. the surface protective layer is formed by laminating at least two layers, at least an outermost layer that is a layer located furthest from the transparent thermoplastic resin layer among layers constituting the surface protective layer contains an ionizing radiation-curable resin containing a multifunctional hexamethylene diisocyanate oligomer at a weight ratio of 60% or more, the arithmetic mean height of a profile curve measured from the outermost layer in accordance with JIS B 0601 is 15 μm or more, and the maximum height of the profile curve is 38 μm or more.
Turbomachine , in particular compressor device, having at least one bearing device (36; 36a; 36b) for a rotatably arranged shaft , wherein the at least one bearing device (36; 36a; 36b) has at least one bearing element (40, 42; 48) for the radial and/or axial mounting of the shaft , wherein the at least one bearing element (40, 42; 48) can be subjected to pressurized gaseous medium for the mounting of the shaft , wherein the shaft is connected to a drivable or driven flow element , in particular to a compressor wheel , wherein the flow element is arranged in a housing at least partially surrounding the flow element , and wherein the pressurized medium can be supplied at least indirectly by the turbomachine to the at least one bearing element (40, 42; 48), wherein the flow element has at least one pressure outlet bore for the medium, via which pressure outlet bore the medium can be supplied at least indirectly to the at least one bearing device (36; 36a; 36b), wherein the at least one pressure outlet bore is connected at least indirectly via at least one pressure line for the medium to the at least one bearing device (36; 36a; 36b), and wherein the flow element is in the form of a compressor wheel of radial design, characterized in that the at least one pressure outlet bore is arranged on a pitch circle diameter about the axis of rotation of the shaft and interacts with an annular groove which is arranged in a separate component and the side of which annular groove that faces away from the at least one pressure outlet bore is connected to the at least one bearing device (36; 36a; 36b).
System comprising an interface device for an intelligent electronic device for substation automation and/or distribution automation, an intelligent electronic device for substation automation and/or distribution automation, and a security server , the interface device , intelligent electronic device and the security server being connected to a network , wherein said interface device comprises a data interface for establishing data communications with said intelligent electronic device , and a user interface for exchanging data with a user of said interface device , wherein said interface device is configured to provide browser means for accessing said intelligent electronic device via said data interface , wherein the security server is configured to check an authorization of the interface device by access control means and to control access of the interface device to the intelligent electronic device , and wherein the security server is adapted to, after authenticating the interface device , redirect the browser means of the interface device to an initial Human Machine Interface screen of the intelligent electronic device .
A method of manufacturing multimode optical fiber having a core with an index profile resulting in a radius-dependent graded index of refraction, the core having a radius R 2 , said method comprising: providing a first index profile across a first predetermined range of radii 0 < r ≤ r i within the core, the first index profile substantially corresponding to a standard ideal parabolic index profile for a dopant given by: n r = n 1 0 ∗ 1 − 2 r R 1 α 1 Δ 0 for r < R 1 where: n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2 , where n 2 is the refractive index of a cladding of the multimode optical fiber; controlling dopant concentrations to reduce the index of refraction to lower than the standard ideal parabolic index for the dopant over a second predetermined range r i < r ≤ R 2 of radii within the, the index of refraction over the second predetermined range being provided by a second index profile substantially given by: n r = n 1 0 ∗ 1 − 2 r R 2 α 2 Δ 0 where: R 2 is less than R 1 ; and α 2 > α 1 . providing a first index profile across a first predetermined range of radii 0 < r ≤ r i within the core, the first index profile substantially corresponding to a standard ideal parabolic index profile for a dopant given by: n r = n 1 0 ∗ 1 − 2 r R 1 α 1 Δ 0 for r < R 1 where: n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2 , where n 2 is the refractive index of a cladding of the multimode optical fiber; n(r) is the refractive index of the core at a radial distance r; n 1 0 is the refractive index at the center of the core; α 1 is a fiber parameter; R 1 is an ideal core radius; and Δ 0 = n 1 0 2 − n 2 2 2 n 1 0 2 , where n 2 is the refractive index of a cladding of the multimode optical fiber; controlling dopant concentrations to reduce the index of refraction to lower than the standard ideal parabolic index for the dopant over a second predetermined range r i < r ≤ R 2 of radii within the, the index of refraction over the second predetermined range being provided by a second index profile substantially given by: n r = n 1 0 ∗ 1 − 2 r R 2 α 2 Δ 0 where: R 2 is less than R 1 ; and α 2 > α 1 . R 2 is less than R 1 ; and α 2 > α 1 .
A method of preparing an absorbent antimicrobial wound dressing, said method comprising: (a) preparing an antimicrobial coating composition by mixing an antimicrobial agent and one or more polymers in a solvent system that comprises a non-aqueous solvent, wherein said antimicrobial coating composition comprises less than 40 % w/w of water, wherein the non-aqueous solvent comprises a polar protic solvent; (b) contacting the antimicrobial coating composition of step (a) with a wound dressing substrate which comprises absorbent fibers or absorbent particles; and (c) drying the product of step (b). (a) preparing an antimicrobial coating composition by mixing an antimicrobial agent and one or more polymers in a solvent system that comprises a non-aqueous solvent, wherein said antimicrobial coating composition comprises less than 40 % w/w of water, wherein the non-aqueous solvent comprises a polar protic solvent; (b) contacting the antimicrobial coating composition of step (a) with a wound dressing substrate which comprises absorbent fibers or absorbent particles; and (c) drying the product of step (b).
A method for identifying hydrocarbons comprising: obtaining a potential location of waterborne liquid hydrocarbons in a body of water using remote sensing data; directing an unmanned vehicle to the potential location; and obtaining a sample of the waterborne liquid hydrocarbons with the unmanned vehicle , CHARACTERIZED IN THAT the sample is collected by a sampling assembly comprising a plurality of individual sample containers where each of the sample containers has a sampling material disposed around a single spool within the sample container , and wherein the spool is actuated to activate deployment and retrieval of the sampling material . obtaining a potential location of waterborne liquid hydrocarbons in a body of water using remote sensing data; directing an unmanned vehicle to the potential location; and obtaining a sample of the waterborne liquid hydrocarbons with the unmanned vehicle , CHARACTERIZED IN THAT the sample is collected by a sampling assembly comprising a plurality of individual sample containers where each of the sample containers has a sampling material disposed around a single spool within the sample container , and wherein the spool is actuated to activate deployment and retrieval of the sampling material .