mhurhangee/patent-ind-claim-en huggingface dataset:
A control unit for a milk analysis apparatus , wherein the milk analysis apparatus comprises a first wireless communication device , for communication with a memory device of a cassette via a second wireless communication device comprised in the cassette ; wherein the cassette is insertable into the milk analysis apparatus and comprises a predetermined number of milk analysis units for one time usage; characterized in that the control unit is configured to: determine a number of consumed milk analysis units during a milk analysis session; transmit information related to the consumed number of milk analysis units during the milk analysis session, to the memory device of the cassette , via the first wireless communication device , for storage in the memory device of the cassette ; obtain number of remaining milk analysis units of the cassette from the memory device of the cassette ; compare the number of remaining milk analysis units with a first trigger level; and change test modus of the milk analysis apparatus when fewer milk analysis units than the first trigger level remains. determine a number of consumed milk analysis units during a milk analysis session; transmit information related to the consumed number of milk analysis units during the milk analysis session, to the memory device of the cassette , via the first wireless communication device , for storage in the memory device of the cassette ; obtain number of remaining milk analysis units of the cassette from the memory device of the cassette ; compare the number of remaining milk analysis units with a first trigger level; and change test modus of the milk analysis apparatus when fewer milk analysis units than the first trigger level remains.
An apparatus comprising: a flexible substrate ; and a first winding conductive trace formed over the flexible substrate, the first winding conductive trace including a first sub-trace (A) and a second sub-trace (B) that is symmetric to the first sub-trace, the first sub-trace (A) and the second sub-trace (B) disposed in a mirrored shape and each including a plurality of alternating crests (805A; 805B) and troughs (807A; 807B) that each have a convex edge (806A; 806B) and a concave edge (812A, 812C; 812B) which is positioned opposite the convex edge at the corresponding crest or trough, the first sub-trace (A) and the second sub-trace (B) splitting from the first winding conductive trace and merging back together at a plurality of joints , each joint located at a trough of the first sub-trace (A) and a crest of the second sub-trace (B); wherein a first portion of the first sub-trace (A) located between each alternating crest and trough of the first sub-trace (A) is smaller in width than a second portion of the first sub-trace (A) located between the convex edge and the concave edge of each of the crests and troughs of the first sub-trace (A), and wherein a first portion of the second sub-trace (B) located between each alternating crest and trough of the second sub-trace (B) is smaller in width than a second portion of the second sub-trace (B) located between the convex edge and the concave edge of each of the crests and troughs of the second sub-trace (B). a flexible substrate ; and a first winding conductive trace formed over the flexible substrate, the first winding conductive trace including a first sub-trace (A) and a second sub-trace (B) that is symmetric to the first sub-trace, the first sub-trace (A) and the second sub-trace (B) disposed in a mirrored shape and each including a plurality of alternating crests (805A; 805B) and troughs (807A; 807B) that each have a convex edge (806A; 806B) and a concave edge (812A, 812C; 812B) which is positioned opposite the convex edge at the corresponding crest or trough, the first sub-trace (A) and the second sub-trace (B) splitting from the first winding conductive trace and merging back together at a plurality of joints , each joint located at a trough of the first sub-trace (A) and a crest of the second sub-trace (B); wherein a first portion of the first sub-trace (A) located between each alternating crest and trough of the first sub-trace (A) is smaller in width than a second portion of the first sub-trace (A) located between the convex edge and the concave edge of each of the crests and troughs of the first sub-trace (A), and wherein a first portion of the second sub-trace (B) located between each alternating crest and trough of the second sub-trace (B) is smaller in width than a second portion of the second sub-trace (B) located between the convex edge and the concave edge of each of the crests and troughs of the second sub-trace (B).
A method for manufacturing a negative electrode for a lithium ion secondary battery, the method comprising: (S10) preparing a lithium metal layer; (S20) dispersing fluorocarbon in a solvent to prepare a slurry for manufacturing a protective layer; (S30) coating the slurry onto the lithium metal layer; and (S40) drying the slurry, wherein the fluorocarbon is a solid at room temperature and is at least one selected from: (CF) n , wherein 1.0≤n≤100,000; (C 2 F) n , wherein 1.0≤n≤100,000; C 60 F x , wherein 0.1≤x≤60.0; CF x , wherein 0.1≤x≤1.0; and (CF 1.1 ) 10,000 . (S10) preparing a lithium metal layer; (S20) dispersing fluorocarbon in a solvent to prepare a slurry for manufacturing a protective layer; (S30) coating the slurry onto the lithium metal layer; and (S40) drying the slurry, wherein the fluorocarbon is a solid at room temperature and is at least one selected from: (CF) n , wherein 1.0≤n≤100,000; (C 2 F) n , wherein 1.0≤n≤100,000; C 60 F x , wherein 0.1≤x≤60.0; CF x , wherein 0.1≤x≤1.0; and (CF 1.1 ) 10,000 .
An aircraft , comprising: a turbine engine having a fan case with a fan case liner; a vibration sensor attached to the turbine engine and configured to output a vibration sensor signal that indicates broadband acceleration of the turbine engine; and a processor programmed to: determine whether the broadband acceleration of the turbine engine indicates that damage to the fan case liner has occurred due to icing conditions as a result of unbalanced rotation of the fan; and indicate that inspection of the fan case should be conducted in response to the broadband acceleration of the turbine engine indicating that damage to the fan case liner has occurred. a turbine engine having a fan case with a fan case liner; a vibration sensor attached to the turbine engine and configured to output a vibration sensor signal that indicates broadband acceleration of the turbine engine; and a processor programmed to: determine whether the broadband acceleration of the turbine engine indicates that damage to the fan case liner has occurred due to icing conditions as a result of unbalanced rotation of the fan; and indicate that inspection of the fan case should be conducted in response to the broadband acceleration of the turbine engine indicating that damage to the fan case liner has occurred. determine whether the broadband acceleration of the turbine engine indicates that damage to the fan case liner has occurred due to icing conditions as a result of unbalanced rotation of the fan; and indicate that inspection of the fan case should be conducted in response to the broadband acceleration of the turbine engine indicating that damage to the fan case liner has occurred.
A solar collector unit adapted for reflecting light onto a receiver , comprising: a reflector element , and a support structure supporting the reflector element , wherein the reflector element is flexible and comprises a reflective surface and a substrate having a predefined length (L) and width (b), and that the support structure comprises a predefined number of profiles per length unit arranged longitudinally and connected to the reflector element at a distance from each other to provide a predefined shape of the solar collector unit ; and wherein the substrate of the reflector element is a flexible sheet of a metal selected from the group consisting of aluminum, magnesium and titanium or a combination thereof and wherein the reflective surface is provided as a coating or a film having reflecting properties. a reflector element , and a support structure supporting the reflector element , wherein the reflector element is flexible and comprises a reflective surface and a substrate having a predefined length (L) and width (b), and that the support structure comprises a predefined number of profiles per length unit arranged longitudinally and connected to the reflector element at a distance from each other to provide a predefined shape of the solar collector unit ; and wherein the substrate of the reflector element is a flexible sheet of a metal selected from the group consisting of aluminum, magnesium and titanium or a combination thereof and wherein the reflective surface is provided as a coating or a film having reflecting properties.
A computer-implemented method, comprising: aligning a window over data content of a target data object , starting at an alignment position ; reading content within the window ; hashing the content within the window in order to calculate a hash value ; selecting a portion from the hash value , wherein the selected portion is shorter than the hash value ; and storing the selected portion as part of a digital DNA, DDNA, sequence that permits to classify the target data object into an object type. aligning a window over data content of a target data object , starting at an alignment position ; reading content within the window ; hashing the content within the window in order to calculate a hash value ; selecting a portion from the hash value , wherein the selected portion is shorter than the hash value ; and storing the selected portion as part of a digital DNA, DDNA, sequence that permits to classify the target data object into an object type.
PrP-derived peptide fragment with SEQ ID NO: 1 for use in the treatment of Aβ amyloidogenesis-related pathologies and/or Aβ-related toxicity, in particular of Alzheimer disease (AD).
A clothes treatment apparatus comprising: a cabinet ; a tub provided within the cabinet ; a drum rotatably provided within the tub and configured to accommodate the laundry or a dry item therein; and a compressor disposed above the tub , wherein the compressor comprises: a compressor base unit configured to support a compressor body; a bracket provided with a fixed portion fixed to the compressor body, the bracket mounted on an upper portion of the compressor base unit , and the compressor body is supported in a state of hanging on the upper portion of the compressor base unit by the bracket . a cabinet ; a tub provided within the cabinet ; a drum rotatably provided within the tub and configured to accommodate the laundry or a dry item therein; and a compressor disposed above the tub , wherein the compressor comprises: a compressor base unit configured to support a compressor body; a bracket provided with a fixed portion fixed to the compressor body, the bracket mounted on an upper portion of the compressor base unit , and the compressor body is supported in a state of hanging on the upper portion of the compressor base unit by the bracket . a compressor base unit configured to support a compressor body; a bracket provided with a fixed portion fixed to the compressor body, the bracket mounted on an upper portion of the compressor base unit , and the compressor body is supported in a state of hanging on the upper portion of the compressor base unit by the bracket .
Axial fan having an external or internal rotor motor which comprises a rotor , wherein at least two vanes are connected with end connection regions to the rotor in a positive-locking and non-positive-locking manner and wherein the connection is carried out by clamping the connection regions by means of the clamping ring , wherein the clamping ring has corresponding to the number of vanes recesses which, together with a retention piece form receiving members for the connection region of the vanes , wherein the retention piece is supported against the rotor and the clamping ring including the connection region of the vanes is connected to the rotor , preferably to a flange or a hub which is formed on the rotor , characterised in that the receiving member in the region of the retention piece and/or in the region of the recess of the clamping ring has at least one opening in which a positioning projection of an indexing piece which is associated with the connection region of the vane in a rotationally secure manner and which is replaceable and/or reversible fits and defines the vane angle. the clamping ring has corresponding to the number of vanes recesses which, together with a retention piece form receiving members for the connection region of the vanes , wherein the retention piece is supported against the rotor and the clamping ring including the connection region of the vanes is connected to the rotor , preferably to a flange or a hub which is formed on the rotor , characterised in that the receiving member in the region of the retention piece and/or in the region of the recess of the clamping ring has at least one opening in which a positioning projection of an indexing piece which is associated with the connection region of the vane in a rotationally secure manner and which is replaceable and/or reversible fits and defines the vane angle.
Cabazitaxel for use as a medicament in the treatment of an AR-V7-positive patient suffering from prostate cancer comprising determining the AR-V7-status in said patient and administering cabazitaxel in base form or in the form of an hydrate or a solvate, to a AR-V7-positive patient, in combination with a corticoid.
A method for producing a hetero type monodispersed polyethylene glycol having functional groups different from each other at both terminals thereof, comprising a compound, which is represented by the following formula : NH 2 -(CH 2 CH 2 O) a -CH 2 CH 2 COOH wherein, in the formula , a represents an integer from 6 to 40; the method comprising: step A of obtaining a compound represented by the following formula by Michael addition reaction of a compound represented by the following formula with a compound represented by the following formula under temperature condition of 5°C or less: TsO-(CH 2 CH 2 O) a -H wherein, in the formula , Ts represents a tosyl group, and a represents an integer from 6 to 40, wherein, in the formula , R 1 represents a hydrocarbon group having from 1 to 6 carbon atoms, TsO-(CH 2 CH 2 O) a -CH 2 CH 2 -COOR 1 wherein, in the formula , Ts represents a tosyl group, R 1 represents a hydrocarbon group having from 1 to 6 carbon atoms, and a represents an integer from 6 to 40; step B of obtaining a compound represented by the following formula by a reaction of the compound represented by the formula with potassium phthalimide: PI-(CH 2 CH 2 O) a -CH 2 CH 2 -COOR 1 wherein, in the formula , PI represents a phthalimido group, R 1 represents a hydrocarbon group having from 1 to 6 carbon atoms, and a represents an integer from 6 to 40; step C of obtaining a compound represented by the following formula by dephthalimidation of the compound represented by the formula : H 2 N-(CH 2 CH 2 O) a -CH 2 CH 2 -COOR 1 wherein, in the formula , R 1 represents a hydrocarbon group having from 1 to 6 carbon atoms, and a represents an integer from 6 to 40; and step D of obtaining the hetero type monodispersed polyethylene glycol comprising the compound represented by the formula by subjecting a reaction product comprising the compound represented by the formula obtained in the step C to separatory extraction treatment and acid hydrolysis treatment.
A method of allocating resources for device-to-device, D2D, and cellular traffic, performed by a network node in a cellular communication system, the network node serving a wireless device supporting D2D communication, the method comprising: - receiving (S1), from the wireless device , at least one control message comprising resource allocation information associated with D2D transmissions of other wireless devices , which transmissions are obtained by the wireless device , and - utilizing (S2) the received resource allocation information when allocating resources to D2D traffic and to cellular traffic, characterized in that resources, identified on the basis of said allocation and the received allocation information as being potentially subject to D2D interference, are allocated for cellular traffic with reduced spectral efficiency compared with resources identified as not being subject to D2D interference and/or such resources are assigned to low priority cellular transmissions. - receiving (S1), from the wireless device , at least one control message comprising resource allocation information associated with D2D transmissions of other wireless devices , which transmissions are obtained by the wireless device , and - utilizing (S2) the received resource allocation information when allocating resources to D2D traffic and to cellular traffic,
A production method for a fiber reinforced resin sheet material (Ps), the method comprising: a superimposing step of conveying and superimposing a fiber sheet material (Ts) and a resin sheet material (Js) in such way that both side end portions of the fiber sheet material are arranged outside both side end portions of the resin sheet material; an integrating step of obtaining a composite sheet material by heating and pressing while conveying the superimposed fiber sheet material (Ts) and resin sheet material (Js) and thereby melting and impregnating or semi-impregnating and integrating the resin sheet material (Js) into the fiber sheet material (Ts), the composite sheet material being formed such that the both side end portions of the fiber sheet material (Ts) are arranged outside the both side end portions of the resin sheet material (Js); and a solidifying step of solidifying a resin by cooling while conveying the composite sheet material and thereby forming a fiber reinforced resin sheet material (Ps) wherein a fiber sheet portion, into which a resin is not impregnated or semi-impregnated, is present in the both side end portions of the fiber reinforced resin sheet material (Ps). a superimposing step of conveying and superimposing a fiber sheet material (Ts) and a resin sheet material (Js) in such way that both side end portions of the fiber sheet material are arranged outside both side end portions of the resin sheet material; an integrating step of obtaining a composite sheet material by heating and pressing while conveying the superimposed fiber sheet material (Ts) and resin sheet material (Js) and thereby melting and impregnating or semi-impregnating and integrating the resin sheet material (Js) into the fiber sheet material (Ts), the composite sheet material being formed such that the both side end portions of the fiber sheet material (Ts) are arranged outside the both side end portions of the resin sheet material (Js); and a solidifying step of solidifying a resin by cooling while conveying the composite sheet material and thereby forming a fiber reinforced resin sheet material (Ps) wherein a fiber sheet portion, into which a resin is not impregnated or semi-impregnated, is present in the both side end portions of the fiber reinforced resin sheet material (Ps).
A method of controlling headphones having external microphone signal pass-through functionality, the method comprising: controlling a display to present a geometric shape on the display; receiving an indication of digit motion from a sensor system associated with the display, the sensor system comprising a touch sensor system or a gesture sensor system, the indication including an indication of a direction of digit motion relative to the display; characterised in that the method further comprises: controlling the display to present a sequence of images indicating that the geometric shape either enlarges or contracts, depending on the direction of digit motion; and changing a headphone transparency setting according to a current size of the geometric shape, wherein the headphone transparency setting corresponds to both an external microphone signal gain setting and a media signal gain setting. controlling a display to present a geometric shape on the display; receiving an indication of digit motion from a sensor system associated with the display, the sensor system comprising a touch sensor system or a gesture sensor system, the indication including an indication of a direction of digit motion relative to the display; characterised in that the method further comprises: controlling the display to present a sequence of images indicating that the geometric shape either enlarges or contracts, depending on the direction of digit motion; and changing a headphone transparency setting according to a current size of the geometric shape, wherein the headphone transparency setting corresponds to both an external microphone signal gain setting and a media signal gain setting. controlling the display to present a sequence of images indicating that the geometric shape either enlarges or contracts, depending on the direction of digit motion; and changing a headphone transparency setting according to a current size of the geometric shape, wherein the headphone transparency setting corresponds to both an external microphone signal gain setting and a media signal gain setting.
An emulsion, comprising: an aqueous dispersed phase; a continuous phase comprising a fluorinated oil; and a surfactant comprising a block copolymer that includes a perfluorinated polyether (PFPE) block coupled to a polyethylene glycol (PEG) block via an amide bond, wherein the PFPE comprises a formula -(CnF2nO)x-, wherein x is greater than or equal to 8, and n is a positive integer. an aqueous dispersed phase; a continuous phase comprising a fluorinated oil; and a surfactant comprising a block copolymer that includes a perfluorinated polyether (PFPE) block coupled to a polyethylene glycol (PEG) block via an amide bond, wherein the PFPE comprises a formula -(CnF2nO)x-, wherein x is greater than or equal to 8, and n is a positive integer.
A base station subsystem, BSS, (202 1 ) configured to interact with a Serving Mobile Location Center, SMLC, (206 1 ), the BSS comprising: a processor (248 1 ); and, a memory (250 1 ) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the BSS is to: transmit , to the SMLC, a Base Station Subsystem Mobile Application Part-Location Services Extension, BSSMAP-LE, PERFORM LOCATION REQUEST message which includes an Information Element, IE, which indicates a worst case synchronization accuracy of a mobile station , further characterized by the IE indicates the worst case synchronization accuracy of the mobile station by utilizing a multi-bit field which indicates that the mobile station has a capability to support one of a plurality of pre-defined multilateration symbol granularities. a processor (248 1 ); and, a memory (250 1 ) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the BSS is to: transmit , to the SMLC, a Base Station Subsystem Mobile Application Part-Location Services Extension, BSSMAP-LE, PERFORM LOCATION REQUEST message which includes an Information Element, IE, which indicates a worst case synchronization accuracy of a mobile station , further characterized by the IE indicates the worst case synchronization accuracy of the mobile station by utilizing a multi-bit field which indicates that the mobile station has a capability to support one of a plurality of pre-defined multilateration symbol granularities.