mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a filament comprising a core material (CM) coated with a layer of shell material (SM) as a support material in a fused filament fabrication process, wherein the core material (CM) comprises the components a) to c) a) 30 to 80% by volume, based on the total volume of the core material (CM) of at least ceramic material precursor (CMP), b) 20 to 70% by volume, based on the total volume of the core material (CM) of at least one binder (B) comprising component b1) b1) at least one polymer (P) c) 0 to 20% by volume, based on the total volume of the core material (CM) of at least one additive (A), and the shell material(SM) comprises the components d) to f) d) 75 to 100% by volume, based on the total volume of the shell material (SM) of at least one thermoplastic polymer (TP), e) 0 to 20% by volume, based on the total volume of the shell material (SM) of the at least one ceramic material precursor (CMP), f) 0 to 25% by volume, based on the total weight of the shell material (SM) of the at least one additive (A), wherein the thickness of the layer of shell material is 0.05 to 0.5 mm. a) 30 to 80% by volume, based on the total volume of the core material (CM) of at least ceramic material precursor (CMP), b) 20 to 70% by volume, based on the total volume of the core material (CM) of at least one binder (B) comprising component b1) b1) at least one polymer (P) c) 0 to 20% by volume, based on the total volume of the core material (CM) of at least one additive (A), and the shell material(SM) comprises the components d) to f) d) 75 to 100% by volume, based on the total volume of the shell material (SM) of at least one thermoplastic polymer (TP), e) 0 to 20% by volume, based on the total volume of the shell material (SM) of the at least one ceramic material precursor (CMP), f) 0 to 25% by volume, based on the total weight of the shell material (SM) of the at least one additive (A), wherein the thickness of the layer of shell material is 0.05 to 0.5 mm.
Truss comprising - at least a lower stringer , - at least an upper continuous stringer with length equal to the whole length of the truss, - a plurality of cores connecting said lower and upper stringers, said cores being connected to the upper stringers at well defined geometrical intervals, with a constant pitch (p) along the development of the truss, characterized in that it comprises further, at the two ends of its own longitudinal development, additional upper stringers , integrally connected to said cores , the length of said additional upper stringers being equal to a multiple of said pitch (p) and lower than the length of said truss. - at least a lower stringer , - at least an upper continuous stringer with length equal to the whole length of the truss, - a plurality of cores connecting said lower and upper stringers, said cores being connected to the upper stringers at well defined geometrical intervals, with a constant pitch (p) along the development of the truss, characterized in that it comprises further, at the two ends of its own longitudinal development, additional upper stringers , integrally connected to said cores , the length of said additional upper stringers being equal to a multiple of said pitch (p) and lower than the length of said truss.
A polypeptide having trehalase activity, selected from the group consisting of: (a) a polypeptide having at least 95% sequence identity to the mature polypeptide of SEQ ID NO: 21; (b) a fragment of the polypeptide of (a) that has trehalase activity; and wherein the polypeptide has a thermal denaturing temperature, Td, of at least 63°C when determined by thermal shift assay. (a) a polypeptide having at least 95% sequence identity to the mature polypeptide of SEQ ID NO: 21; (b) a fragment of the polypeptide of (a) that has trehalase activity; and
A process for the production of compressed hydrogen gas from a feedstream comprising methane, comprising the steps of: (a) supplying the feedstream comprising methane and a steam stream to a solid oxide fuel cell wherein a reforming catalyst composition at the anode of the solid oxide fuel cell catalyses the generation of a product mixture comprising hydrogen; (b) generating electricity using the solid oxide fuel cell from at least a portion of the product mixture comprising hydrogen; (c) supplying at least a portion of the electricity generated by the solid oxide fuel cell to at least partially power an electrochemical device capable of extracting gaseous hydrogen and compressing it; (d) supplying at least a portion of the product mixture comprising hydrogen to the electrochemical device, for it to produce a compressed hydrogen stream; and (e) supplying, either continuously or intermittently, at least a portion of the compressed hydrogen stream to at least one hydrogen end-user and/or at least one storage unit, wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell. (a) supplying the feedstream comprising methane and a steam stream to a solid oxide fuel cell wherein a reforming catalyst composition at the anode of the solid oxide fuel cell catalyses the generation of a product mixture comprising hydrogen; (b) generating electricity using the solid oxide fuel cell from at least a portion of the product mixture comprising hydrogen; (c) supplying at least a portion of the electricity generated by the solid oxide fuel cell to at least partially power an electrochemical device capable of extracting gaseous hydrogen and compressing it; (d) supplying at least a portion of the product mixture comprising hydrogen to the electrochemical device, for it to produce a compressed hydrogen stream; and (e) supplying, either continuously or intermittently, at least a portion of the compressed hydrogen stream to at least one hydrogen end-user and/or at least one storage unit, wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell. wherein at least another portion of the electricity generated by the solid oxide fuel cell is supplied to an electrolysis apparatus to at least partially power the electrolysis apparatus, wherein the electrolysis apparatus produces an output stream comprising hydrogen from an intake of water and at least a portion of electricity produced by the solid oxide fuel cell.
An enamel composition, comprising: a base glass frit; and a catalytic glass frit, wherein the enamel composition comprises 3 to 20 parts by weight of the catalytic glass frit based on 100 parts by weight of the base glass frit, and wherein the catalytic glass frit comprises: 15 to 20 percent by weight (wt%) of silicon dioxide (SiO 2 ); 20 to 30 wt% of phosphorus pentoxide (P 2 O 5 ); 5 to 15 wt% of boron oxide (B 2 O 3 ); 15 to 30 wt% of a Group I oxide; 0.1 to 15 wt% of a Group II oxide; 15 to 30 wt% of aluminum oxide (Al 2 O 3 ); 5 to 25 wt% of titanium dioxide (TiO 2 ); 1 to 5 wt% zirconium dioxide (ZrO 2 ); and 5 to 10 wt% molybdenum trioxide (MoOs). a base glass frit; and a catalytic glass frit, wherein the enamel composition comprises 3 to 20 parts by weight of the catalytic glass frit based on 100 parts by weight of the base glass frit, and wherein the catalytic glass frit comprises: 15 to 20 percent by weight (wt%) of silicon dioxide (SiO 2 ); 20 to 30 wt% of phosphorus pentoxide (P 2 O 5 ); 5 to 15 wt% of boron oxide (B 2 O 3 ); 15 to 30 wt% of a Group I oxide; 0.1 to 15 wt% of a Group II oxide; 15 to 30 wt% of aluminum oxide (Al 2 O 3 ); 5 to 25 wt% of titanium dioxide (TiO 2 ); 1 to 5 wt% zirconium dioxide (ZrO 2 ); and 5 to 10 wt% molybdenum trioxide (MoOs).
A method for controlling a nonvolatile memory arrangement having a micromechanical cantilever , a contact electrode , and a switching electrode , comprising: applying a first biasing voltage to the switching electrode to induce electrostatic forces between the micromechanical cantilever and the switching electrode; thereby deflecting the micromechanical cantilever to move a free end of the micromechanical cantilever from a first, de-programmed state spaced from the contact electrode to a second state in contact with the contact electrode such that stiction at the interface between the micromechanical cantilever and the contact electrode is generated rendering the micromechanical cantilever in a programmed state, so that it remains in contact with the contact electrode when the biasing voltage is removed; increasing the elastic strain energy of the micromechanical cantilever by applying a biasing voltage between the switching electrode and the micromechanical cantilever thereby pulling the micromechanical cantilever further towards the switching electrode while the micromechanical cantilever is still in contact with the contact electrode; and dropping the voltage at the switching electrode quickly thereby rapidly deflecting the micromechanical cantilever away from the switching electrode and thus moving the micromechanical cantilever to the first, de-programmed state. applying a first biasing voltage to the switching electrode to induce electrostatic forces between the micromechanical cantilever and the switching electrode; thereby deflecting the micromechanical cantilever to move a free end of the micromechanical cantilever from a first, de-programmed state spaced from the contact electrode to a second state in contact with the contact electrode such that stiction at the interface between the micromechanical cantilever and the contact electrode is generated rendering the micromechanical cantilever in a programmed state, so that it remains in contact with the contact electrode when the biasing voltage is removed; increasing the elastic strain energy of the micromechanical cantilever by applying a biasing voltage between the switching electrode and the micromechanical cantilever thereby pulling the micromechanical cantilever further towards the switching electrode while the micromechanical cantilever is still in contact with the contact electrode; and dropping the voltage at the switching electrode quickly thereby rapidly deflecting the micromechanical cantilever away from the switching electrode and thus moving the micromechanical cantilever to the first, de-programmed state.
A process for the continuous production of one or more glycols from a saccharide-containing feedstock, said process comprising the steps of: i) contacting the saccharide-containing feedstock comprising at least 1wt% saccharide in a solvent with hydrogen in the presence of one or more catalysts in a reactor at a reaction temperature and at a reaction pressure which is above the vapour pressure of the solvent at the reaction temperature in a continuous manner, to provide a reaction effluent stream comprising hydrogen and one or more glycols; ii) separating hydrogen from the reaction effluent stream, without substantial de-pressurisation of said reaction effluent stream, to provide a separated hydrogen stream and a first liquid effluent stream, wherein the hydrogen is separated from the reaction effluent stream at a pressure within 0.2 MPa of the reaction pressure; iii) providing at least a portion of the separated hydrogen stream as a hydrogen recycle stream to the reactor for re-use in step i); and iv) cooling down the first liquid effluent stream by staged flashing which removes solvent from the first liquid effluent stream as vapour, wherein the energy contained in this evaporated solvent is used elsewhere in the process. i) contacting the saccharide-containing feedstock comprising at least 1wt% saccharide in a solvent with hydrogen in the presence of one or more catalysts in a reactor at a reaction temperature and at a reaction pressure which is above the vapour pressure of the solvent at the reaction temperature in a continuous manner, to provide a reaction effluent stream comprising hydrogen and one or more glycols; ii) separating hydrogen from the reaction effluent stream, without substantial de-pressurisation of said reaction effluent stream, to provide a separated hydrogen stream and a first liquid effluent stream, wherein the hydrogen is separated from the reaction effluent stream at a pressure within 0.2 MPa of the reaction pressure; iii) providing at least a portion of the separated hydrogen stream as a hydrogen recycle stream to the reactor for re-use in step i); and iv) cooling down the first liquid effluent stream by staged flashing which removes solvent from the first liquid effluent stream as vapour, wherein the energy contained in this evaporated solvent is used elsewhere in the process.
Sterile connector for the sterile transfer of a liquid medium, in particular a biological medium, from a liquid container to a bioprocess engineering system , in particular to a bioreactor, wherein the sterile connector has two coupling devices , wherein the coupling devices each have a housing having a housing interior and a control element which is adjustably mounted in the housing interior and forms a channel , wherein the channel extends through the control element from a control element inlet opening to a control element outlet opening , wherein the housing of one coupling device is able to be mechanically connected to the housing of the other coupling device , wherein each housing has a fluid inlet and a fluid outlet which connect the housing interior to the surroundings, wherein, in the mechanically connected state of the housings , the fluid outlet of one housing and the fluid inlet of the other housing overlap, wherein, in the mechanically connected state of the housings , the control elements are each adjustable from a starting position, in which a fluid connection between the channel and the control element inlet opening on the one hand and between the channel and the control element outlet opening on the other hand is blocked, into an operating position, in which the control element inlet opening is fluidically connected to the fluid inlet and the control element outlet opening is fluidically connected to the fluid outlet , characterized in that , in the starting position, each channel extends in a region of the housing interior that is hermetically sealed with respect to the surroundings of the housing . wherein the sterile connector has two coupling devices , wherein the coupling devices each have a housing having a housing interior and a control element which is adjustably mounted in the housing interior and forms a channel , wherein the channel extends through the control element from a control element inlet opening to a control element outlet opening , wherein the housing of one coupling device is able to be mechanically connected to the housing of the other coupling device , wherein each housing has a fluid inlet and a fluid outlet which connect the housing interior to the surroundings, wherein, in the mechanically connected state of the housings , the fluid outlet of one housing and the fluid inlet of the other housing overlap, wherein, in the mechanically connected state of the housings , the control elements are each adjustable from a starting position, in which a fluid connection between the channel and the control element inlet opening on the one hand and between the channel and the control element outlet opening on the other hand is blocked, into an operating position, in which the control element inlet opening is fluidically connected to the fluid inlet and the control element outlet opening is fluidically connected to the fluid outlet , characterized in that , in the starting position, each channel extends in a region of the housing interior that is hermetically sealed with respect to the surroundings of the housing .
A control system for controlling manipulation of a surgical instrument in response to manipulation of a remote surgeon input device at a remote surgeon's console , the surgical instrument being supported by a surgical robot arm , the surgical robot arm comprising a series of links between a base and an attachment for the surgical instrument , the links being interspersed by joints , the surgical instrument comprising an end effector connected to a distal end of a shaft by an articulated coupling , the articulated coupling comprising one or more joints enabling the end effector to adopt a range of attitudes relative to the distal end of the shaft , the control system configured to: receive a command from an input actuated by a user to straighten the surgical instrument ; and in response to the received command, to command driving forces to be applied to joint(s) of the articulated coupling to drive the instrument to adopt a predetermined configuration in which the profile of the end effector is most closely aligned with the profile of the distal end of the shaft , and in response to the received command, command driving forces to be applied to one or more joints of the surgical robot arm to drive the surgical robot arm to adopt a predetermined arm configuration. receive a command from an input actuated by a user to straighten the surgical instrument ; and in response to the received command, to command driving forces to be applied to joint(s) of the articulated coupling to drive the instrument to adopt a predetermined configuration in which the profile of the end effector is most closely aligned with the profile of the distal end of the shaft , and in response to the received command, command driving forces to be applied to one or more joints of the surgical robot arm to drive the surgical robot arm to adopt a predetermined arm configuration.
An implantable medical device comprising: a body member having a surface, and a lubricious one-part hydrophilic coating applied to at least a portion of the surface, the coating comprising: a heterochelic component having a first reactive group and a second reactive group, the first reactive group reactive with at least a portion of the surface and the second reactive group non-reactive with the portion of the surface with which the first reactive group is reactive; a homotelechelic polymer reactive with the second reactive group of the heterochelic hydrophilic component; and a biocompatible initiator, wherein the heterochelic component is crosslinked with the homotelechelic polymer. a body member having a surface, and a lubricious one-part hydrophilic coating applied to at least a portion of the surface, the coating comprising: a heterochelic component having a first reactive group and a second reactive group, the first reactive group reactive with at least a portion of the surface and the second reactive group non-reactive with the portion of the surface with which the first reactive group is reactive; a homotelechelic polymer reactive with the second reactive group of the heterochelic hydrophilic component; and a biocompatible initiator, wherein the heterochelic component is crosslinked with the homotelechelic polymer. a heterochelic component having a first reactive group and a second reactive group, the first reactive group reactive with at least a portion of the surface and the second reactive group non-reactive with the portion of the surface with which the first reactive group is reactive; a homotelechelic polymer reactive with the second reactive group of the heterochelic hydrophilic component; and a biocompatible initiator, wherein the heterochelic component is crosslinked with the homotelechelic polymer.
A signal transmission apparatus, wherein the apparatus comprises a Long Term Evolution in unlicensed frequency bands, LTE-U, processing unit, a Wireless Fidelity, Wi-Fi, processing unit, and an antenna unit; the apparatus further comprises a coupling apparatus; and the coupling apparatus is connected to the LTE-U processing unit, the Wi-Fi processing unit, and the antenna unit, wherein the coupling apparatus is configured to: divide an air interface signal received by the antenna unit into a first signal and a second signal, send the first signal to the LTE-U processing unit, and send the second signal to the Wi-Fi processing unit; the coupling apparatus is further configured to: receive an LTE-U signal sent by the LTE-U processing unit; divide the LTE-U signal into a first LTE-U signal and a second LTE-U signal; send the first LTE-U signal to the antenna unit, so that the antenna unit transmits the first LTE-U signal; and send the second LTE-U signal to the Wi-Fi processing unit, so that the Wi-Fi processing unit does not send a Wi-Fi signal; and the coupling apparatus is further configured to: receive a Wi-Fi signal sent by the Wi-Fi processing unit; divide the Wi-Fi signal into a first Wi-Fi signal and a second Wi-Fi signal; send the first Wi-Fi signal to the antenna unit, so that the antenna unit transmits the first Wi-Fi signal; and send the second Wi-Fi signal to the LTE-U processing unit, so that the LTE-U processing unit does not send an LTE-U signal.
A flexural pivot , comprising: three flexure support members , each flexure support member having a plurality of flexure openings and a plurality of wells each in fluid communication with a respective flexure opening ; and at least one flexure (140a-d) to rotatably couple the three flexure support members to one another, the at least one flexure (140a-d) first and second flexible blades arranged in a cross configuration. wherein the first and second flexible blades are disposed in the flexure openings and extend into wells of the flexure support members , the wells comprising cylindrical openings oriented to extend along the ends of the flexible blades , and wherein a coupling material deposited in the wells and the flexure openings joins the first and second flexible blades the flexure support members at outer ends of the flexure openings . three flexure support members , each flexure support member having a plurality of flexure openings and a plurality of wells each in fluid communication with a respective flexure opening ; and at least one flexure (140a-d) to rotatably couple the three flexure support members to one another, the at least one flexure (140a-d) first and second flexible blades arranged in a cross configuration. wherein the first and second flexible blades are disposed in the flexure openings and extend into wells of the flexure support members , the wells comprising cylindrical openings oriented to extend along the ends of the flexible blades , and wherein a coupling material deposited in the wells and the flexure openings joins the first and second flexible blades the flexure support members at outer ends of the flexure openings .