mhurhangee/patent-ind-claim-en huggingface dataset:
A method for authenticating calls between mobile devices , comprising: receiving an incoming call data stream from a first mobile phone device , the incoming call data stream comprising an incoming call number associated with a second mobile phone device , a payload comprising a cryptogram retrieved from a contactless card , wherein at least a portion of the payload is encrypted with a private key of the contactless card ; retrieving a public key of the incoming call number from a data storage device, the public key associated with the private key; decrypting the cryptogram using the public key of the incoming call number to produce a decrypted payload comprising an identifier; comparing the identifier of the decrypted payload to an expected identifier associated with the incoming call number to determine an authentication match; and selectively establishing a connection between the first mobile phone device and the second mobile phone device in response to the authentication match. receiving an incoming call data stream from a first mobile phone device , the incoming call data stream comprising an incoming call number associated with a second mobile phone device , a payload comprising a cryptogram retrieved from a contactless card , wherein at least a portion of the payload is encrypted with a private key of the contactless card ; retrieving a public key of the incoming call number from a data storage device, the public key associated with the private key; decrypting the cryptogram using the public key of the incoming call number to produce a decrypted payload comprising an identifier; comparing the identifier of the decrypted payload to an expected identifier associated with the incoming call number to determine an authentication match; and selectively establishing a connection between the first mobile phone device and the second mobile phone device in response to the authentication match.
A method for making a rotor structure of a synchronous reluctance electric machine , wherein the rotor structure has an annular arrangement about a central opening , having a centre (O) and designed to be engaged by a rotation shaft, and comprises a plurality of magnetic portions and a plurality of electromagnetic flux barriers interposed between the magnetic portions , said electromagnetic flux barriers defining at least one maximum magnetic reluctance path along a maximum reluctance axis (q) and a minimum reluctance path along a minimum reluctance axis (d), wherein said rotor structure further comprises radial connecting elements passing through the flux barriers for mechanical connection between radially-adjacent magnetic portions , characterized by comprising the step of forming said electromagnetic flux barriers so as to have a centreline profile (A'), which is arranged equidistant between an upper and a lower edge thereof and has side portions, which have a convex shape so that they are arranged towards said outer side surface (S) of said rotor structure , and a central portion,; which crosses said maximum reluctance axis (q) and has a strictly concave shape with respect to the centre (O) of said central opening .
Method of emptying a container filled with rod-like articles manufactured in the tobacco industry comprising the following steps: a container to be emptied is delivered to the entrance area of an intermediate store comprising adjacent channels separated from one another by walls; by means of supporting plates rod-like articles are transferred from the container to the channels of the intermediate store; the channels of the intermediate store are filled with the rod-like articles; characterised in that during the transfer of the rod-like articles (R) from the container to the channels of the intermediate store the intermediate store makes a reciprocating motion in the horizontal direction, transversely to the axis of the rod-like articles. a container to be emptied is delivered to the entrance area of an intermediate store comprising adjacent channels separated from one another by walls; by means of supporting plates rod-like articles are transferred from the container to the channels of the intermediate store; the channels of the intermediate store are filled with the rod-like articles; characterised in that during the transfer of the rod-like articles (R) from the container to the channels of the intermediate store the intermediate store makes a reciprocating motion in the horizontal direction, transversely to the axis of the rod-like articles.
A wind turbine comprising - a tower supporting a nacelle ; - a fluid damper arranged in the upper level of the tower ; and - a leak containment arrangement for the fluid damper , comprising - a receptacle arranged below the fluid damper ; characterized by : - a fluid guide arranged between the fluid damper and the receptacle , which fluid guide is arranged to receive fluid (3F leak ) from a leak (X) in the damper and to guide the leaked fluid (3F leak ) into the receptacle , and wherein the fluid guide comprises a weight-bearing support structure and fluid run-off surface arranged on the support structure ; and - a sensing means arranged to detect fluid (3F leak ) in the receptacle . - a tower supporting a nacelle ; - a fluid damper arranged in the upper level of the tower ; and - a leak containment arrangement for the fluid damper , comprising - a receptacle arranged below the fluid damper ; characterized by : - a fluid guide arranged between the fluid damper and the receptacle , which fluid guide is arranged to receive fluid (3F leak ) from a leak (X) in the damper and to guide the leaked fluid (3F leak ) into the receptacle , and wherein the fluid guide comprises a weight-bearing support structure and fluid run-off surface arranged on the support structure ; and - a sensing means arranged to detect fluid (3F leak ) in the receptacle . - a receptacle arranged below the fluid damper ; characterized by : - a fluid guide arranged between the fluid damper and the receptacle , which fluid guide is arranged to receive fluid (3F leak ) from a leak (X) in the damper and to guide the leaked fluid (3F leak ) into the receptacle , and wherein the fluid guide comprises a weight-bearing support structure and fluid run-off surface arranged on the support structure ; and - a sensing means arranged to detect fluid (3F leak ) in the receptacle . - a fluid guide arranged between the fluid damper and the receptacle , which fluid guide is arranged to receive fluid (3F leak ) from a leak (X) in the damper and to guide the leaked fluid (3F leak ) into the receptacle , and wherein the fluid guide comprises a weight-bearing support structure and fluid run-off surface arranged on the support structure ; and - a sensing means arranged to detect fluid (3F leak ) in the receptacle .
An apparatus for fluidised-bed chemical vapour deposition, comprising at least: - a reactor comprising a treatment zone in which the fluidised-bed chemical vapour deposition is intended to be carried out from a gaseous phase, an inlet zone through which the gaseous phase is intended to be introduced into the treatment zone and an outlet zone through which the gaseous phase is intended to be removed from the treatment zone, - a heating system configured to heat the treatment zone, and - a cooling system configured to cool the inlet zone, the apparatus being characterised in that it further comprises a porous thermal insulator present in the inlet zone and configured to be passed through by the gaseous phase, said porous thermal insulator having an effective thermal conductivity at 20°C less than or equal to 3.5 W.m -1 .K -1 , and in that the porosity of the insulator has a tortuous shape. - a reactor comprising a treatment zone in which the fluidised-bed chemical vapour deposition is intended to be carried out from a gaseous phase, an inlet zone through which the gaseous phase is intended to be introduced into the treatment zone and an outlet zone through which the gaseous phase is intended to be removed from the treatment zone, - a heating system configured to heat the treatment zone, and - a cooling system configured to cool the inlet zone,
A method, at a computing device, comprising: obtaining a plurality of timing advance parameters determined based, at least in part, on signals transmitted from a mobile device to a plurality of base stations on uplink channels to the plurality of base stations; selecting a timing advance parameter from among the plurality of timing advance parameters based on signals transmitted to a selected base station of the plurality of base stations, wherein the selected base station serves a cell other than a primary cell; and determining a locus of an estimated location of the mobile device based, at least in part, on a location of the selected base station and the selected timing advance parameter, characterized in that the selecting the timing advance parameter from among the plurality of timing advance parameters further comprises: a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell. obtaining a plurality of timing advance parameters determined based, at least in part, on signals transmitted from a mobile device to a plurality of base stations on uplink channels to the plurality of base stations; selecting a timing advance parameter from among the plurality of timing advance parameters based on signals transmitted to a selected base station of the plurality of base stations, wherein the selected base station serves a cell other than a primary cell; and determining a locus of an estimated location of the mobile device based, at least in part, on a location of the selected base station and the selected timing advance parameter, characterized in that the selecting the timing advance parameter from among the plurality of timing advance parameters further comprises: a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell. a) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an expected frequency at which the selected timing advance parameter is updated, or b) selecting the timing advance parameter from among the plurality of timing advance parameters based, at least in part, on an absence of a grant of transmission resources on an uplink channel to a base station of the primary cell.
A manufacturing method of power-module substrate wherein a plurality of copper-circuit plates are bonded at intervals on a ceramic plate having an area wherein ceramic substrates can be formed abreast, and then the ceramic plate is divided between the copper-circuit plates so as to manufacture the power-module substrates, comprising: a laminating step of forming bonding-material layers of active-metal brazing material having same shapes as outer shapes of the copper-circuit plates on one of the ceramic plate or the plurality of copper-circuit plates, spreading temporal-stick material including polyethylene glycol having a weight-average molecular weight of 800 to 20000 as a major ingredient on the other of the ceramic plate or the plurality of copper-circuit plates, and temporary sticking the bonding-material layers and the copper-circuit plates in a state of laminating with positioning on the ceramic plate by the temporal-stick material; and a bonding step of bonding the ceramic plate and the copper-circuit plates by pressurizing and heating a laminated assembly thereof in a laminating direction. a laminating step of forming bonding-material layers of active-metal brazing material having same shapes as outer shapes of the copper-circuit plates on one of the ceramic plate or the plurality of copper-circuit plates, spreading temporal-stick material including polyethylene glycol having a weight-average molecular weight of 800 to 20000 as a major ingredient on the other of the ceramic plate or the plurality of copper-circuit plates, and temporary sticking the bonding-material layers and the copper-circuit plates in a state of laminating with positioning on the ceramic plate by the temporal-stick material; and a bonding step of bonding the ceramic plate and the copper-circuit plates by pressurizing and heating a laminated assembly thereof in a laminating direction.
A method for tuning a fleece nozzle to a spread sliver disposed at a discharge of a drafting system of a textile machine, wherein the spread sliver can be consolidated by means of the fleece nozzle so that a strand-shaped sliver leaves the fleece nozzle , wherein the fleece nozzle is selected from a plurality of different fleece nozzles depending on at least one sliver property of the spread sliver characterized in that an orientation and/or position of the fleece nozzle to the sliver is adjusted by adjusting the fleece nozzle depending on the sliver property. wherein the fleece nozzle is selected from a plurality of different fleece nozzles depending on at least one sliver property of the spread sliver characterized in that an orientation and/or position of the fleece nozzle to the sliver is adjusted by adjusting the fleece nozzle depending on the sliver property.
A method for achieving adequate pressure equalization between upper and lower surfaces of PV assemblies of an array (112; 212; 312) of PV assemblies comprising: choosing an array (112; 212; 312) of PV assemblies supportable on a support surface (116; 216; 316), at least some of said PV assemblies comprising 1) an inclined PV module (114; 214; 314) having a lower edge , an upper edge and inclined side edges joining the lower and upper edges, and 2) an air deflector having inclined deflector side edges (150; 152) and an upper deflector edge opposite the upper edge of the inclined PV module (114; 214; 314) and defining a gap therebetween, the array (112; 212; 312) of PV assemblies defining a circumferentially closed perimeter ; calculating an array air volume V defined between the array (112; 212; 312) of PV assemblies and the support surface (116; 216; 316), with the volume measured in meters cubed and area measured in meters squared, calculating an interior array gap area IGAP defined as the sum of all gap areas between solid surfaces located within the array when viewed from vertically above the array; being the sum of a module gap area MGA defined between the PV modules (114; 214; 314), an air deflector gap area ADGA defined between the upper edges of the air deflectors and the upper edges of the PV modules (114; 214; 314) and a deflector/deflector gap area D/DGA defined between opposed ones of the inclined deflector sides (159; 152); calculating a perimeter gap area PGAP being the sum of all gap areas at the perimeter of the area and being defined as the lesser of 1) the area between the top edges of the PV modules and deflectors and the support surface (116; 216; 316) or 2) the area between the top edges of the PV modules (114; 214; 314) and deflectors and any perimeter deflector device being opposite the inclined side edges (144; 146; 150: 152) of the PV modules; and accounting for any obstructions by any supports by deducting any areas blocked by supports when calculating IGAP and PGAP characterized in; determining a ratio R, R = V divided by (IGAP + PGAP); and if ratio R is not less than a chosen ratio, then: changing at least one of V, IGAP and PGAP; and repeating the determining step.
An in vitro method for predicting the response to an anti-LPS immunoglobulin treatment in a patient in need thereof, said method comprising the step of evaluating the expression of one or more biomarkers in a biological sample obtained from said patient, for example a blood sample, wherein said one or more biomarkers are selected from the group consisting of CD14, CD68, TLR-4, TLR-7, IL-6, IL-8, IL-10, IFN-alpha, IGF-1, CXCL1, CXCL9, CXCL10, RAGE, GDNF and BCHE, wherein the evaluating step includes (a) quantifying the expression of one or more of the selected biomarkers in a biological sample obtained from said patient to obtain an expression value for each quantified biomarker, and (b) comparing each expression value obtained at step (a) to a corresponding control value.
A gear train mechanism of a timepiece, comprising: a gear including a tooth having a tooth profile of an involute curve; and a pinion including a tooth meshing with the tooth of the gear to transmit and receive a torque, wherein the torque to be transmitted from one of the gear and the pinion to the other of the gear and the pinion is substantially constant by having a torque transmission rate with a tolerance value of 0.01 or below at least in a part of a first half of a meshing period of the gear and the pinion , wherein a tooth profile of the pinion is set to a constant torque curve having a substantial constant torque to be transmitted from a virtual gear to the pinion when the tooth of the pinion meshes with a tooth of the virtual gear including an involute profile having a pressure angle larger or smaller than a pressure angle of the involute curve of the gear , and wherein a difference Δα between the pressure angle α2 of the gear and the pressure angle α1 of the involute profile of the tooth of the virtual gear, i.e., Δα = α1 - α2, satisfies a following condition, − Z / 2 + 5 < Δ α < − Z / 2 + 8 , with Z being the number of teeth on the pinion . a gear including a tooth having a tooth profile of an involute curve; and a pinion including a tooth meshing with the tooth of the gear to transmit and receive a torque, wherein the torque to be transmitted from one of the gear and the pinion to the other of the gear and the pinion is substantially constant by having a torque transmission rate with a tolerance value of 0.01 or below at least in a part of a first half of a meshing period of the gear and the pinion , wherein a tooth profile of the pinion is set to a constant torque curve having a substantial constant torque to be transmitted from a virtual gear to the pinion when the tooth of the pinion meshes with a tooth of the virtual gear including an involute profile having a pressure angle larger or smaller than a pressure angle of the involute curve of the gear , and wherein a difference Δα between the pressure angle α2 of the gear and the pressure angle α1 of the involute profile of the tooth of the virtual gear, i.e., Δα = α1 - α2, satisfies a following condition, − Z / 2 + 5 < Δ α < − Z / 2 + 8 , with Z being the number of teeth on the pinion .
An apparatus for pasteurizing or sterilizing particulate material, comprising - an outer casing , - a material inlet , - a material outlet , - a material guide channel in which the material can be guided from the material inlet along a material guide direction (R) through the apparatus to the material outlet , - at least one electron source arranged within the housing for generating an electron beam, - a treatment zone arranged in the material guide channel in which the material can be pasteurized and/or sterilized, in particular in a free-falling manner, by means of the electron beam, wherein the apparatus has at least one inner shielding arranged inside the outer housing and enclosing the material guide channel , in particular along the material guide direction (R), with at least one shielding element for shielding the radiation produced during the treatment, characterized in that the housing has at least one opening which can be closed by means of at least one closure element associated therewith, in particular a door , and wherein the closure element contains at least one of the shielding elements on an inner side . - an outer casing , - a material inlet , - a material outlet , - a material guide channel in which the material can be guided from the material inlet along a material guide direction (R) through the apparatus to the material outlet , - at least one electron source arranged within the housing for generating an electron beam, - a treatment zone arranged in the material guide channel in which the material can be pasteurized and/or sterilized, in particular in a free-falling manner, by means of the electron beam, wherein the apparatus has at least one inner shielding arranged inside the outer housing and enclosing the material guide channel , in particular along the material guide direction (R), with at least one shielding element for shielding the radiation produced during the treatment, characterized in that the housing has at least one opening which can be closed by means of at least one closure element associated therewith, in particular a door , and wherein the closure element contains at least one of the shielding elements on an inner side .
A Microelectromechanical System (MEMS) microphone system comprising: a package housing having a cavity; and a MEMS sensor is disposed within the cavity of the package housing , the MEMS sensor comprising: a substrate ; a first member and a second member spaced apart from the first member are arranged above the substrate ; a plug ; and an access channel formed on at least one of the first or the second member, the access channel is configured to receive the plug , the MEMS sensor further comprising a vacuum formed between the first and second members, the vacuum having a pressure different from the cavity, wherein the MEMS sensor further comprising an electrode assembly having a movable electrode and a stationary electrode , wherein the movable electrode is formed between the first and second members, wherein the first and second members comprises a central portion and the movable electrode is located on the central portion, wherein the movable electrode is mechanically coupled to at least one of the first or second member and the movable electrode overlaps with the stationary electrode . a package housing having a cavity; and a MEMS sensor is disposed within the cavity of the package housing , the MEMS sensor comprising: a substrate ; a first member and a second member spaced apart from the first member are arranged above the substrate ; a plug ; and an access channel formed on at least one of the first or the second member, the access channel is configured to receive the plug , the MEMS sensor further comprising a vacuum formed between the first and second members, the vacuum having a pressure different from the cavity, wherein the MEMS sensor further comprising an electrode assembly having a movable electrode and a stationary electrode , wherein the movable electrode is formed between the first and second members, wherein the first and second members comprises a central portion and the movable electrode is located on the central portion, wherein the movable electrode is mechanically coupled to at least one of the first or second member and the movable electrode overlaps with the stationary electrode . a substrate ; a first member and a second member spaced apart from the first member are arranged above the substrate ; a plug ; and an access channel formed on at least one of the first or the second member, the access channel is configured to receive the plug , the MEMS sensor further comprising a vacuum formed between the first and second members, the vacuum having a pressure different from the cavity, wherein the MEMS sensor further comprising an electrode assembly having a movable electrode and a stationary electrode , wherein the movable electrode is formed between the first and second members, wherein the first and second members comprises a central portion and the movable electrode is located on the central portion, wherein the movable electrode is mechanically coupled to at least one of the first or second member and the movable electrode overlaps with the stationary electrode .