mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: sending (S11), by a client device, an identification code acquisition request to a server; receiving (S13), at the client device, an identification code from the server, the identification code generated and returned by the server in response to the identification code acquisition request; displaying (S15), on the client device, the identification code, the display of the identification code capable of being input to an electronic device; receiving (S17), at the client device, file information provided by the server, the file information associated with a file stored on the electronic device and corresponding to the identification code, the file information provided by the server after the server received the identification code input to the electronic device and the file stored on the electronic device; and sending (S19), by the client device, form confirmation information to the server, the form confirmation information indicating that a form has been completed based on the file information. sending (S11), by a client device, an identification code acquisition request to a server; receiving (S13), at the client device, an identification code from the server, the identification code generated and returned by the server in response to the identification code acquisition request; displaying (S15), on the client device, the identification code, the display of the identification code capable of being input to an electronic device; receiving (S17), at the client device, file information provided by the server, the file information associated with a file stored on the electronic device and corresponding to the identification code, the file information provided by the server after the server received the identification code input to the electronic device and the file stored on the electronic device; and sending (S19), by the client device, form confirmation information to the server, the form confirmation information indicating that a form has been completed based on the file information.
A method of fabricating a part made of ceramic matrix composite material, the method comprising the following step: a) fabricating the part by forming a ceramic matrix in the pores of a fiber structure, the ceramic matrix being formed by self propagating high temperature synthesis from a powder composition present in the pores of the fiber structure; the matrix formed during step a) comprising a majority by weight: - of Si 2 N 2 O formed by self propagating high temperature synthesis by chemical reaction between a silicon powder, a silica powder, and a gaseous phase comprising the element N, said process comprising inserting a silicon powder into the pores of the fiber structure prior to step a), and treatment for partial oxidation of the silicon powder prior to step a), this partial oxidation treatment serving to convert some or all of the silicon powder into silica. a) fabricating the part by forming a ceramic matrix in the pores of a fiber structure, the ceramic matrix being formed by self propagating high temperature synthesis from a powder composition present in the pores of the fiber structure; - of Si 2 N 2 O formed by self propagating high temperature synthesis by chemical reaction between a silicon powder, a silica powder, and a gaseous phase comprising the element N,
A fluid sampling container comprising: a sealed outer body configured to hold a sample multi-phase fluid obtained from a multi-phase fluid stream; an inlet line attached to the outer body, wherein the sample multi-phase fluid flows into the sealed outer body through the inlet line; a piston assembly positioned within the sealed outer body, the piston assembly sealed to inner walls of the outer body to define a sample volume in which the sample multi-phase fluid is contained; said fluid sampling container being characterized in that it comprises a shear mixer positioned within the sealed outer body, the shear mixer comprising a rotor and a stator arranged to define a fluid passage and rotatable relative to each other, the rotor comprising a rotary shear blade configured to shear the sample multi-phase fluid flowing through the fluid passage, the shear mixer configured to shear the sample multi-phase fluid such that a homogeneity of multiple phases in the sample multi-phase fluid remains substantially constant over time. a sealed outer body configured to hold a sample multi-phase fluid obtained from a multi-phase fluid stream; an inlet line attached to the outer body, wherein the sample multi-phase fluid flows into the sealed outer body through the inlet line; a piston assembly positioned within the sealed outer body, the piston assembly sealed to inner walls of the outer body to define a sample volume in which the sample multi-phase fluid is contained; said fluid sampling container being characterized in that it comprises a shear mixer positioned within the sealed outer body, the shear mixer comprising a rotor and a stator arranged to define a fluid passage and rotatable relative to each other, the rotor comprising a rotary shear blade configured to shear the sample multi-phase fluid flowing through the fluid passage, the shear mixer configured to shear the sample multi-phase fluid such that a homogeneity of multiple phases in the sample multi-phase fluid remains substantially constant over time.
A method of bonding a first part of a wind turbine blade to a second part of a wind turbine blade, the method comprising the following steps in any suitable order: (a) providing a first part of a wind turbine blade having a first mounting surface ; (b) providing a second part of the wind turbine blade having a second mounting surface and one or more apertures defined in the second mounting surface; (c) providing one or more locating devices on the first mounting surface , the or each locating device comprising a shaft extending from the first mounting surface ; (d) arranging the first and second parts such that the first and second mounting surfaces are in mutually opposed relation; (e) inserting an end of the shaft of the or each locating device through a respective aperture in the second mounting surface ; (f) providing adhesive between the first and second mounting surfaces ; (g) applying a clamping force between the first and second parts via the or each locating device , the clamping force serving to move the first and second mounting surfaces closer together and thereby squeezing the adhesive between the respective mounting surfaces ; and (h) providing one or more stop elements between the first and second mounting surfaces , the or each stop element being arranged to maintain a predefined minimum separation between the first and second mounting surfaces and thereby to set a bond height between the first and second parts. (a) providing a first part of a wind turbine blade having a first mounting surface ; (b) providing a second part of the wind turbine blade having a second mounting surface and one or more apertures defined in the second mounting surface; (c) providing one or more locating devices on the first mounting surface , the or each locating device comprising a shaft extending from the first mounting surface ; (d) arranging the first and second parts such that the first and second mounting surfaces are in mutually opposed relation; (e) inserting an end of the shaft of the or each locating device through a respective aperture in the second mounting surface ; (f) providing adhesive between the first and second mounting surfaces ; (g) applying a clamping force between the first and second parts via the or each locating device , the clamping force serving to move the first and second mounting surfaces closer together and thereby squeezing the adhesive between the respective mounting surfaces ; and (h) providing one or more stop elements between the first and second mounting surfaces , the or each stop element being arranged to maintain a predefined minimum separation between the first and second mounting surfaces and thereby to set a bond height between the first and second parts.
An adhesive composition comprising: lysine, malic acid, and water, wherein: (i) the lysine and the malic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the malic acid is in the range of 1:1.3 to 1:3; and (iii) a solid content in the adhesive composition is 70 parts by weight or less based on a total weight of the adhesive composition. lysine, malic acid, and water, wherein: (i) the lysine and the malic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the malic acid is in the range of 1:1.3 to 1:3; and (iii) a solid content in the adhesive composition is 70 parts by weight or less based on a total weight of the adhesive composition. (i) the lysine and the malic acid are present in the form of an aqueous salt solution and do not form precipitates in the adhesive composition; (ii) the mixing molar ratio of the lysine to the malic acid is in the range of 1:1.3 to 1:3; and (iii) a solid content in the adhesive composition is 70 parts by weight or less based on a total weight of the adhesive composition.
Method for producing a composite structure comprising a thin layer made of monocrystalline silicon carbide arranged on a support substrate made of polycrystalline silicon carbide, the method comprising: - a step of providing an initial substrate made of monocrystalline silicon carbide, - a first deposition step at a temperature greater than 1000°C to form an intermediate layer made of polycrystalline silicon carbide on the initial substrate , the intermediate layer having a thickness greater than or equal to 1.5 microns, - a step of implanting, by means of ion implantation, light species, chosen from hydrogen and/or helium, through the intermediate layer , to form a buried brittle plane in the initial substrate , delimiting the thin layer between said buried brittle plane and the intermediate layer , - a second deposition step at a temperature greater than 1000°C to form an additional layer made of polycrystalline silicon carbide on the intermediate layer , said intermediate layer and the additional layer forming the support substrate , a separation along the buried brittle plane occurring during the second deposition step. - a step of providing an initial substrate made of monocrystalline silicon carbide, - a first deposition step at a temperature greater than 1000°C to form an intermediate layer made of polycrystalline silicon carbide on the initial substrate , the intermediate layer having a thickness greater than or equal to 1.5 microns, - a step of implanting, by means of ion implantation, light species, chosen from hydrogen and/or helium, through the intermediate layer , to form a buried brittle plane in the initial substrate , delimiting the thin layer between said buried brittle plane and the intermediate layer , - a second deposition step at a temperature greater than 1000°C to form an additional layer made of polycrystalline silicon carbide on the intermediate layer , said intermediate layer and the additional layer forming the support substrate , a separation along the buried brittle plane occurring during the second deposition step.
A method of resource transmission of a user equipment, comprising: determining that physical sidelink feedback channel, PSFCH, resources for a resource pool are divided into M times N PSFCH resource sets in a frequency domain, each PSFCH resource set corresponds to a subchannel in a slot for the resource pool, and N is a number of physical sidelink shared channel, PSSCH, slots associated with a PSFCH slot, M is a number of subchannels for the resource pool, M and N are integers equal to or larger than 1, wherein PSFCH transmissions from one or more receiver, RX, UEs within the same group can be frequency division multiplexed, FDMed, or code-division multiplexed, CDMed, and wherein the RX UEs select different resources firstly in the frequency domain for PSFCH transmission and then in a code domain.
A laminate comprising: a substrate made of a metal or an alloy; and a metal film formed of a copper powder having a hydrogen content of 0.002% by mass or less, an oxygen content of 0.03% by mass or more and 0.15% by mass or less, and a phosphorus content of 0.002% by mass or more and 0.028% by mass or less; and laminated on the substrate , wherein an interface between the substrate and the metal film is plastically deformed. a substrate made of a metal or an alloy; and a metal film formed of a copper powder having a hydrogen content of 0.002% by mass or less, an oxygen content of 0.03% by mass or more and 0.15% by mass or less, and a phosphorus content of 0.002% by mass or more and 0.028% by mass or less; and laminated on the substrate , wherein an interface between the substrate and the metal film is plastically deformed.
Method carried out in a radio terminal for receiving streaming media, which terminal includes a modem for connecting to a radio network , and a data streaming client including a streaming data buffer for receiving streaming data from a streaming data server through the radio network, and which is under control by a controller , the method comprising signaling the network, by means of the modem, to indicate streaming service initiation and the terminal data buffer size; receiving a buffer filling signal message from the network; buffering media data of a streaming media file received from the streaming data server through the network according to a buffer scheme adapted dependent on the data buffer size, wherein the buffer scheme is run by the controller of the streaming data client and also takes into account the received buffer signal control data; the method being characterized by : signaling the network, by means of the modem, to indicate streaming service termination.
A method for setting a cooling temperature of a metal wall , the method being characterized by : a step of computing a cooling temperature-stress relationship (L4) representing a relationship between a post-cooling temperature of an outer surface of the metal wall that partitions pressurized fluid and stress acting on a cooled portion; and a post-cooling temperature computation step of computing a target post-cooling temperature of the outer surface that provides a target creep life of the metal wall based on the cooling temperature-stress relationship and an equivalent life line (L1, L2) representing a relationship between a temperature and stress that provides the target creep life, wherein the cooling temperature-stress relationship (L4) is computed in consideration of a thickness of the metal wall in the cooling temperature-stress relationship computation step. a step of computing a cooling temperature-stress relationship (L4) representing a relationship between a post-cooling temperature of an outer surface of the metal wall that partitions pressurized fluid and stress acting on a cooled portion; and a post-cooling temperature computation step of computing a target post-cooling temperature of the outer surface that provides a target creep life of the metal wall based on the cooling temperature-stress relationship and an equivalent life line (L1, L2) representing a relationship between a temperature and stress that provides the target creep life, wherein the cooling temperature-stress relationship (L4) is computed in consideration of a thickness of the metal wall in the cooling temperature-stress relationship computation step.
A method for determining whether a pregnant woman at an early stage of the pregnancy is at risk of developing preeclampsia, the method comprising: (i) measuring the levels of a plurality of non-coding RNAs (ncRNAs) selected from ncRNAs corresponding to SEQ ID NOs: 1-25 in a plasma or serum sample that has been obtained from the pregnant woman, wherein the pregnant woman is in the first trimester of the pregnancy or in week 10 to 14 of the pregnancy, to thereby obtain a ncRNA expression pattern of said pregnant woman; (ii) comparing the ncRNA expression pattern of the pregnant woman to a non-preeclampsia reference pattern; (iii) characterizing the pregnant woman as being at risk of developing preeclampsia wherein the ncRNA expression pattern of the pregnant woman is determined to be different from the non-preeclampsia reference pattern, by detecting at least one of: increased expression levels of one or more ncRNA corresponding to SEQ ID NOs: 1-2, 5, 7-10, 13, 16-17, 19-23 and 25 compared to non-preeclampsia reference values; and decreased expression levels of one or more ncRNA corresponding to SEQ ID NOs: 3-4, 6, 11-12, 14-15, 18 and 24 compared to non-preeclampsia reference values. (i) measuring the levels of a plurality of non-coding RNAs (ncRNAs) selected from ncRNAs corresponding to SEQ ID NOs: 1-25 in a plasma or serum sample that has been obtained from the pregnant woman, wherein the pregnant woman is in the first trimester of the pregnancy or in week 10 to 14 of the pregnancy, to thereby obtain a ncRNA expression pattern of said pregnant woman; (ii) comparing the ncRNA expression pattern of the pregnant woman to a non-preeclampsia reference pattern; (iii) characterizing the pregnant woman as being at risk of developing preeclampsia wherein the ncRNA expression pattern of the pregnant woman is determined to be different from the non-preeclampsia reference pattern, by detecting at least one of: increased expression levels of one or more ncRNA corresponding to SEQ ID NOs: 1-2, 5, 7-10, 13, 16-17, 19-23 and 25 compared to non-preeclampsia reference values; and decreased expression levels of one or more ncRNA corresponding to SEQ ID NOs: 3-4, 6, 11-12, 14-15, 18 and 24 compared to non-preeclampsia reference values.
A checkweigher belt comprising: an endless belt body advancing in a direction of belt travel along a carryway and bearing the belt tension, wherein the endless belt body has an outer surface extending along the width of the belt body from a first side edge to an opposite second side edge; a plurality of product-supporting slats spaced apart along the length of the belt body in the direction of belt travel , wherein each of the slats is elongated along the width of the belt body; characterized in that each of the slats is movable from a first position sitting on the outer surface of the belt body to a second position raised above the outer surface of the belt body in a direction perpendicular to the outer surface of the belt body. an endless belt body advancing in a direction of belt travel along a carryway and bearing the belt tension, wherein the endless belt body has an outer surface extending along the width of the belt body from a first side edge to an opposite second side edge; a plurality of product-supporting slats spaced apart along the length of the belt body in the direction of belt travel , wherein each of the slats is elongated along the width of the belt body; characterized in that each of the slats is movable from a first position sitting on the outer surface of the belt body to a second position raised above the outer surface of the belt body in a direction perpendicular to the outer surface of the belt body.
A probe for treating an ocular pathology comprising: ∘ a ring including a truncated cone having a first end adapted to support ultrasound generating means and a second end for coming into contact with an eye of a patient, the ring further including a skirt coaxial with the truncated cone ∘ ultrasound generating means including a crown comprising a first base intended to come in front of the first end , and a second base opposite the first base , the skirt extending outwardly from the first end so as to envelop the crown , characterized in that the probe further comprises a flow regulator including an opening defined between the skirt and the crown , the opening having a thickness comprised between 0.1 millimeter and 5 millimeters and extending over the entire height of the crown for: ∘ allowing the passage between the second and first bases of a coupling fluid having a viscosity greater than or equal to that of water promoting the transmission of ultrasound to the patient's eye, and ∘ preventing the propagation of bubbles contained in the coupling fluid flowing to the first base when filling the probe with said fluid. ∘ a ring including a truncated cone having a first end adapted to support ultrasound generating means and a second end for coming into contact with an eye of a patient, the ring further including a skirt coaxial with the truncated cone ∘ ultrasound generating means including a crown comprising a first base intended to come in front of the first end , and a second base opposite the first base , the skirt extending outwardly from the first end so as to envelop the crown , ∘ allowing the passage between the second and first bases of a coupling fluid having a viscosity greater than or equal to that of water promoting the transmission of ultrasound to the patient's eye, and ∘ preventing the propagation of bubbles contained in the coupling fluid flowing to the first base when filling the probe with said fluid.
A garment that defines an interior body-facing surface shaped to fit over a portion of a body, wherein the garment includes a porous polymeric material that is formed by drawing a thermoplastic composition containing a continuous phase that includes a matrix polymer, and further wherein a polymeric microinclusion additive and a polymeric nanoinclusion additive are dispersed within the continuous phase in the form of discrete domains, wherein a porous network is defined in the material that includes a plurality of nanopores having an average cross-sectional dimension of 800 nanometers or less; wherein the thermoplastic composition further comprises an interphase modifier; wherein the microinclusion additive is in the form of micro-scale domains, wherein after drawing the micro-scale domains have an average cross-sectional dimension of from 0.05 to 50 micrometers; wherein the nanoinclusion additive is in the form of nano-scale domains, wherein prior to drawing the nano-scale domains have an average cross-sectional dimension of from 1 to 500 nanometers; and wherein the nanoinclusion additive is a functionalized polyolefin.