mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a press-molded body, comprising: a step of placing an X material in a mold; a step of closing the mold, starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material is cut out from a composite material M containing a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A , and Lw A is 1 mm or more and 100 mm or less, wherein the press-molded body has a flange portion, and at least one end portion of the flange portion is formed of only the Y region made of the Y material, and wherein the press-molded body includes a portion having a hat-shaped cross section. a step of placing an X material in a mold; a step of closing the mold, starting applying pressure to a part of the X material, and then injecting a Y material, which is a kneaded material, into the mold; and a step of cold pressing the X material and the Y material in the mold to integrally mold the X material and the Y material, wherein the X material is cut out from a composite material M containing a carbon fiber A having a weight average fiber length Lw A and a thermoplastic resin Rx, the Y material contains a carbon fiber B having a weight average fiber length Lw B and a thermoplastic resin Ry, wherein Lw B < Lw A , and Lw A is 1 mm or more and 100 mm or less, wherein the press-molded body has a flange portion, and at least one end portion of the flange portion is formed of only the Y region made of the Y material, and wherein the press-molded body includes a portion having a hat-shaped cross section.
A method of constructing an inflatable irrigated electrode assembly for an electrophysiology catheter , the method comprising: providing a flex circuit having a substrate with a pre-formed aperture , the substrate having a higher heat resistance; providing an inflated balloon member with a flexible membrane , the membrane having a lower heat resistance; affixing the substrate to the membrane with adhesive ; applying heat through the pre-formed aperture of the substrate , the heat creating a temperature sufficient to melt a portion of membrane and the adhesive without melting the substrate , the portion of the membrane and the adhesive melted forming an aperture in the membrane and adhesive ; and wherein the aperture in the membrane is larger than the pre-formed aperture in the substrate due to reflow of the membrane and the adhesive . providing a flex circuit having a substrate with a pre-formed aperture , the substrate having a higher heat resistance; providing an inflated balloon member with a flexible membrane , the membrane having a lower heat resistance; affixing the substrate to the membrane with adhesive ; applying heat through the pre-formed aperture of the substrate , the heat creating a temperature sufficient to melt a portion of membrane and the adhesive without melting the substrate , the portion of the membrane and the adhesive melted forming an aperture in the membrane and adhesive ; and wherein the aperture in the membrane is larger than the pre-formed aperture in the substrate due to reflow of the membrane and the adhesive .
A polypropylene film roll comprising a polypropylene film wound around a core, the film roll having a roll outermost layer having an average hardness of 84.0 to 94.0°, the roll outermost layer having a variation of hardness within ±2.0° in a transverse direction, wherein the average hardness is measured using a rubber hardness meter in accordance with JIS K 6301 , wherein the surface, which is the outermost layer of the film roll, is measured at seven points in the transverse direction, and the average is calculated, and wherein the variation of hardness is defined as the difference between the average hardness and the hardness most distant therefrom at each measurement point, wherein the average hardness and the variation of hardness are measured according to the description.
A toilet seat for reducing the spread of foul air from a person seated on a toilet , the toilet seat comprising: (i) a mounting formation for mounting the toilet seat on a toilet bowl ; (ii) a seat portion on which the person sits; (iii) a filter for filtering the foul air; (iv) a fan for causing the foul air to be circulated through the filter ; (v) timer means for controlling the duration of operation of the fan ; (vi) activation means for causing activation of the timer means ; and (vii) a ducting system for receiving the foul air from the toilet bowl , directing the foul air to the filter , and re-circulating filtered air to the toilet bowl , the toilet seat being such that: (viii) in use the foul air from the person seated on the seat portion is caused by the fan to be sucked from the toilet bowl and passed through the ducting system and the filter ; and (ix) air that has passed through the filter is caused by the fan to be blown through the ducting system and into the toilet bowl for further recirculation from the toilet bowl and through the ducting system and the filter until the timer means causes the fan to cease operating, and the toilet seat being characterised in that : (x) the toilet seat comprises a lid; (xi) the toilet seat comprises a first sealing arrangement for forming a first seal between the seat portion and the toilet bowl when the seat portion is in a down position on the toilet bowl ; (xii) the mounting formation includes part of the ducting system ; and (xiii) the filter is in the mounting formation . (i) a mounting formation for mounting the toilet seat on a toilet bowl ; (ii) a seat portion on which the person sits; (iii) a filter for filtering the foul air; (iv) a fan for causing the foul air to be circulated through the filter ; (v) timer means for controlling the duration of operation of the fan ; (vi) activation means for causing activation of the timer means ; and (vii) a ducting system for receiving the foul air from the toilet bowl , directing the foul air to the filter , and re-circulating filtered air to the toilet bowl , (viii) in use the foul air from the person seated on the seat portion is caused by the fan to be sucked from the toilet bowl and passed through the ducting system and the filter ; and (ix) air that has passed through the filter is caused by the fan to be blown through the ducting system and into the toilet bowl for further recirculation from the toilet bowl and through the ducting system and the filter until the timer means causes the fan to cease operating, (x) the toilet seat comprises a lid; (xi) the toilet seat comprises a first sealing arrangement for forming a first seal between the seat portion and the toilet bowl when the seat portion is in a down position on the toilet bowl ; (xii) the mounting formation includes part of the ducting system ; and (xiii) the filter is in the mounting formation .
A method for producing methane, the method comprising: (a) supplying electricity to an anode and a porous electrically conductive cathode of a biological reactor , wherein the biological reactor (i) is coupled to a source of electricity and a source of carbon dioxide , (ii) has at least a first chamber containing at least the cathode , a culture comprising methanogenic microorganisms, and water, a second chamber containing at least the anode , and a proton permeable, gas impermeable barrier separating the anode from the cathode , and (iii) has a current collector coupled to each of the anode and the cathode , wherein the cathode is impregnated with the methanogenic microorganisms and with an aqueous electrolytic medium, wherein the methanogenic microorganisms are in a passage formed between the barrier and the current collector coupled to the cathode and located between an inlet for carbon dioxide and an outlet for methane , wherein the culture is maintained in the aqueous electrolytic medium in the passage of the first chamber at a temperature above 50 °C; (b) supplying carbon dioxide to the first chamber through the inlet of the first chamber , whereupon the carbon dioxide is dissolved into the aqueous electrolytic medium; (c) circulating the aqueous electrolytic medium comprising the dissolved carbon dioxide through the cathode ; and (d) collecting methane from the outlet of the first chamber . (a) supplying electricity to an anode and a porous electrically conductive cathode of a biological reactor , wherein the biological reactor (i) is coupled to a source of electricity and a source of carbon dioxide , (ii) has at least a first chamber containing at least the cathode , a culture comprising methanogenic microorganisms, and water, a second chamber containing at least the anode , and a proton permeable, gas impermeable barrier separating the anode from the cathode , and (iii) has a current collector coupled to each of the anode and the cathode , wherein the cathode is impregnated with the methanogenic microorganisms and with an aqueous electrolytic medium, wherein the methanogenic microorganisms are in a passage formed between the barrier and the current collector coupled to the cathode and located between an inlet for carbon dioxide and an outlet for methane , wherein the culture is maintained in the aqueous electrolytic medium in the passage of the first chamber at a temperature above 50 °C; (b) supplying carbon dioxide to the first chamber through the inlet of the first chamber , whereupon the carbon dioxide is dissolved into the aqueous electrolytic medium; (c) circulating the aqueous electrolytic medium comprising the dissolved carbon dioxide through the cathode ; and (d) collecting methane from the outlet of the first chamber .
A method for producing a surface-modified metal electrode, comprising the steps of: bringing a surface modifier for a metal electrode comprising a reactive silyl compound represented by General Formula into contact with a surface of the metal electrode, and thereby obtaining a surface-modified metal electrode, Rf-X-A-SiR 1 3-n (OR 2 ) n wherein, Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein at least one hydrogen atom is replaced with a fluorine atom, X represents a divalent group selected from -O-, -NH-, -C(=O)O-, -C(=O)NH-, - OC(=O)NH-, and -NHC(=O)NH-, or a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms or an aromatic divalent hydrocarbon group having 6 to 10 carbon atoms, R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3. Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein at least one hydrogen atom is replaced with a fluorine atom, X represents a divalent group selected from -O-, -NH-, -C(=O)O-, -C(=O)NH-, - OC(=O)NH-, and -NHC(=O)NH-, or a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms or an aromatic divalent hydrocarbon group having 6 to 10 carbon atoms, R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3.
A method for manufacturing a microwave circulator comprising: - stacking a first cell (C 1 )and a second cell (C 2 ); - producing the first cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material, and the second cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material; - producing access tracks connected to two access ports (P1, P2), and a connection track connected to a connection port (P5) on one of the faces, called active face, of said first cell, - producing access tracks connected to two access ports (P3, P4), and a connection track connected to a connection port (P5') on one of the faces, called active face, of said second cell, - the two access ports (P 1 , P 2 ) of the first cell (C 1 )being located on two opposite sides of said first cell and the two access ports (P 3 , P 4 ) of the second cell (C 2 ) being positioned on one side of the second cell located perpendicular to the sides on which the two ports (P 1 , P 2 ) of the first cell are positioned; - producing a ground plane (P M ) on one of the faces opposite one of the active faces of said cells; - assembling said first cell and said second cell; - producing a connection (C 1-2 ) between the connection track of said first cell and the connection track of said second cell; - a step of co-sintering for securing the structure of the circulator in the three dimensions. - stacking a first cell (C 1 )and a second cell (C 2 ); - producing the first cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material, and the second cell, comprising a core of ferrite material surrounded by dielectric or weakly magnetic material; - producing access tracks connected to two access ports (P1, P2), and a connection track connected to a connection port (P5) on one of the faces, called active face, of said first cell, - producing access tracks connected to two access ports (P3, P4), and a connection track connected to a connection port (P5') on one of the faces, called active face, of said second cell, - the two access ports (P 1 , P 2 ) of the first cell (C 1 )being located on two opposite sides of said first cell and the two access ports (P 3 , P 4 ) of the second cell (C 2 ) being positioned on one side of the second cell located perpendicular to the sides on which the two ports (P 1 , P 2 ) of the first cell are positioned; - producing a ground plane (P M ) on one of the faces opposite one of the active faces of said cells; - assembling said first cell and said second cell; - producing a connection (C 1-2 ) between the connection track of said first cell and the connection track of said second cell; - a step of co-sintering for securing the structure of the circulator in the three dimensions.
Use of the expression levels of the EGR1 biomarker, for the in vitro diagnosis and/or prognosis of frailty in a subject.
A method of an electronic device, the method comprising: obtaining a query from a user ; identifying at least one word associated with the user from the query ; identifying that the query relates to protected data of the user stored in a protected data memory; accessing at least a part of the protected data in the protected data memory using an authentication code required for accessing the protected data; obtaining a result of a first search, executed by a protected data search processing module configured to search only the protected data , and executed on the at least the part of the protected data based on the at least one word, the result comprising another at least one word obtained based on the at least one word; changing the query based on the result of the first search, the change comprising changing the at least one word with the another at least one word based on the result of the first search ; and providing a result of a second search executed on at least a part of a set of public data based on the changed query, the second search executed by a public data search processing module configured to search only the public data . obtaining a query from a user ; identifying at least one word associated with the user from the query ; identifying that the query relates to protected data of the user stored in a protected data memory; accessing at least a part of the protected data in the protected data memory using an authentication code required for accessing the protected data; obtaining a result of a first search, executed by a protected data search processing module configured to search only the protected data , and executed on the at least the part of the protected data based on the at least one word, the result comprising another at least one word obtained based on the at least one word; changing the query based on the result of the first search, the change comprising changing the at least one word with the another at least one word based on the result of the first search ; and providing a result of a second search executed on at least a part of a set of public data based on the changed query, the second search executed by a public data search processing module configured to search only the public data .
A method for automatically prioritizing emergency calls based on health data, wherein the method comprising the steps of: - (S100) receiving an emergency call, by an Emergency Service Routing Proxy, ESRP, from a caller who is not involved in an emergency incident to which the caller places the emergency call; - (S200) retrieving, by the ESRP, a location information to the call; - (S300) forwarding, by the ESRP, the call with the location information retrieved to a Public Service Answering Point, PSAP; - (S400) queueing, by the PSAP, the emergency call into a queue; - (S500) querying, by the PSAP, a cloud server, cs, with stored health status data of people who wear a smart device configured to monitor these data by using the location information of the call; and - (S600) prioritizing, by the PSAP the emergency call in the case abnormal health status data within the location of the call have been found in the query. - (S100) receiving an emergency call, by an Emergency Service Routing Proxy, ESRP, from a caller who is not involved in an emergency incident to which the caller places the emergency call; - (S200) retrieving, by the ESRP, a location information to the call; - (S300) forwarding, by the ESRP, the call with the location information retrieved to a Public Service Answering Point, PSAP; - (S400) queueing, by the PSAP, the emergency call into a queue; - (S500) querying, by the PSAP, a cloud server, cs, with stored health status data of people who wear a smart device configured to monitor these data by using the location information of the call; and - (S600) prioritizing, by the PSAP the emergency call in the case abnormal health status data within the location of the call have been found in the query.
A method for transmitting device-to-device, D2D, configuration information, in a wireless communication system, the method performed by a base station, BS, and comprising: transmitting, to a user equipment, UE, the D2D configuration information related to D2D operation, wherein the D2D operation includes D2D discovery and D2D communication, wherein the D2D configuration information comprises frequency information informing a specific frequency on which the D2D discovery is supported, wherein the specific frequency is a frequency different from a current frequency of the UE, and wherein the BS further receives, from the UE, UE-capability information including D2D operation support band information which informs frequency bands on which the UE supports the D2D operation. transmitting, to a user equipment, UE, the D2D configuration information related to D2D operation, wherein the D2D operation includes D2D discovery and D2D communication, wherein the D2D configuration information comprises frequency information informing a specific frequency on which the D2D discovery is supported, wherein the specific frequency is a frequency different from a current frequency of the UE, and wherein the BS further receives, from the UE, UE-capability information including D2D operation support band information which informs frequency bands on which the UE supports the D2D operation.
An electronic control key , comprising: an inductive link; an inductive system configured to receive power and enable communications via the inductive link; and security check circuitry coupled to the inductive system and configured to perform at least one security check to determine whether to enable authorized functions, wherein: the security check circuitry comprises: battery status circuitry configured to indicate a status of a battery ; and distance measurement circuitry configured to perform a secure distance check by a distance measurement between the electronic control key and an access system; and wherein the inductive system invokes the distance measurement circuitry to perform the secure distance check when the battery status circuitry indicates that the battery status is good and enables authorized functions only when the secure distance check passes. an inductive link; an inductive system configured to receive power and enable communications via the inductive link; and security check circuitry coupled to the inductive system and configured to perform at least one security check to determine whether to enable authorized functions, wherein: the security check circuitry comprises: battery status circuitry configured to indicate a status of a battery ; and distance measurement circuitry configured to perform a secure distance check by a distance measurement between the electronic control key and an access system; and battery status circuitry configured to indicate a status of a battery ; and distance measurement circuitry configured to perform a secure distance check by a distance measurement between the electronic control key and an access system; and wherein the inductive system invokes the distance measurement circuitry to perform the secure distance check when the battery status circuitry indicates that the battery status is good and enables authorized functions only when the secure distance check passes.
A method of forming a microelectronic assembly, comprising: providing a substrate having an exposed wiring layer ; coating the wiring layer with an inorganic protective sacrificial layer ; bonding a temporary substrate to the inorganic protective sacrificial layer using a temporary bonding layer ; processing the substrate while the temporary substrate is bonded to the inorganic protective sacrificial layer ; removing the temporary substrate and the temporary bonding layer , leaving a residue of the temporary bonding layer ; exposing the substrate , the inorganic protective sacrificial layer , and the residue of the temporary bonding layer to an oxygen plasma radiation for a preselected duration to modify the moisture absorption characteristics of the inorganic protective sacrificial layer ; exposing the substrate , the modified inorganic protective sacrificial layer , and the residue of the temporary bonding layer to a wet etchant for a preselected duration of time, the wet etchant decomposing the modified inorganic protective sacrificial layer and removing the inorganic protective sacrificial layer and the residue of the temporary bonding layer from the wiring layer . providing a substrate having an exposed wiring layer ; coating the wiring layer with an inorganic protective sacrificial layer ; bonding a temporary substrate to the inorganic protective sacrificial layer using a temporary bonding layer ; processing the substrate while the temporary substrate is bonded to the inorganic protective sacrificial layer ; removing the temporary substrate and the temporary bonding layer , leaving a residue of the temporary bonding layer ; exposing the substrate , the inorganic protective sacrificial layer , and the residue of the temporary bonding layer to an oxygen plasma radiation for a preselected duration to modify the moisture absorption characteristics of the inorganic protective sacrificial layer ; exposing the substrate , the modified inorganic protective sacrificial layer , and the residue of the temporary bonding layer to a wet etchant for a preselected duration of time, the wet etchant decomposing the modified inorganic protective sacrificial layer and removing the inorganic protective sacrificial layer and the residue of the temporary bonding layer from the wiring layer .