mhurhangee/patent-ind-claim-en huggingface dataset:
A factor H binding protein (fHbp) comprising: an amino acid sequence having at least 80% sequence identity to SEQ ID NO:2 (fHbp ID22) and an amino acid substitution at position D210 of SEQ ID NO:2; wherein said fHbp has a lower affinity for human factor H (fH) than the fHbp ID22 and elicits bactericidal antibodies against N. meningitidis. an amino acid sequence having at least 80% sequence identity to SEQ ID NO:2 (fHbp ID22) and an amino acid substitution at position D210 of SEQ ID NO:2; wherein said fHbp has a lower affinity for human factor H (fH) than the fHbp ID22 and elicits bactericidal antibodies against N. meningitidis.
A target route generation system for a work vehicle comprising: a storage part configured to store basic data necessary for generating a plurality of target routes for autonomous travel; a priority item selection part configured to prompt selection of a priority item with regard to generation of the plurality of target routes; a target route generation part configured to generate a plurality of target routes based on the basic data and the priority item selected by the priority item selection part ; and a route selection part , characterized in that when the target route generation part generates the plurality of target routes, the route selection part is configured to prompt selection of either one of the plurality of target routes, and the target route generation system for a work vehicle further comprising an arbitrary data input part to which arbitrary setting data for target route generation is input, wherein the target route generation part is configured to generate the plurality of target routes including a first target route based on the basic data and the priority item without considering the arbitrary data and a second target route based on the basic data and the arbitrary setting data without considering the priority item, wherein the priority item includes at least one of maximization of a working size, minimization of a non-working travel distance, optimization of a circling travel route area along an outer periphery of the work area, and avoidance of generation of an overlapped route area. a storage part configured to store basic data necessary for generating a plurality of target routes for autonomous travel; a priority item selection part configured to prompt selection of a priority item with regard to generation of the plurality of target routes; a target route generation part configured to generate a plurality of target routes based on the basic data and the priority item selected by the priority item selection part ; and a route selection part , characterized in that when the target route generation part generates the plurality of target routes, the route selection part is configured to prompt selection of either one of the plurality of target routes, and the target route generation system for a work vehicle further comprising an arbitrary data input part to which arbitrary setting data for target route generation is input, wherein the target route generation part is configured to generate the plurality of target routes including a first target route based on the basic data and the priority item without considering the arbitrary data and a second target route based on the basic data and the arbitrary setting data without considering the priority item, wherein the priority item includes at least one of maximization of a working size, minimization of a non-working travel distance, optimization of a circling travel route area along an outer periphery of the work area, and avoidance of generation of an overlapped route area.
An intermittent-catheter assembly (100;200;300), comprising: a collapsible catheter housing (102;202;302) including: an inner sleeve (106;206;306); an outer sleeve (108;208;308) slidably mounted over the inner sleeve; and a cap coupled to the inner sleeve, the cap including a pair of extension arms extending from the cap, the pair of extension arms including a corresponding pair of inwardly protruding posts about end portions of the extension arms, and the pair of posts disposed in a pair of outwardly opening sockets in the inner sleeve; and an intermittent catheter (104;204;304) including: a funnel (118;218;318) having a funnel opening (122;222;322) for voiding urine; and a catheter tube (120;220;320) coupled to the funnel, the intermittent-catheter assembly having: a storage state in which the intermittent catheter is sealed within the catheter housing; and an opened state in which the catheter housing is collapsed exposing the funnel of the intermittent catheter for removal of the intermittent catheter from the catheter housing. a collapsible catheter housing (102;202;302) including: an inner sleeve (106;206;306); an outer sleeve (108;208;308) slidably mounted over the inner sleeve; and a cap coupled to the inner sleeve, the cap including a pair of extension arms extending from the cap, the pair of extension arms including a corresponding pair of inwardly protruding posts about end portions of the extension arms, and the pair of posts disposed in a pair of outwardly opening sockets in the inner sleeve; and an inner sleeve (106;206;306); an outer sleeve (108;208;308) slidably mounted over the inner sleeve; and a cap coupled to the inner sleeve, the cap including a pair of extension arms extending from the cap, the pair of extension arms including a corresponding pair of inwardly protruding posts about end portions of the extension arms, and the pair of posts disposed in a pair of outwardly opening sockets in the inner sleeve; and an intermittent catheter (104;204;304) including: a funnel (118;218;318) having a funnel opening (122;222;322) for voiding urine; and a catheter tube (120;220;320) coupled to the funnel, the intermittent-catheter assembly having: a storage state in which the intermittent catheter is sealed within the catheter housing; and an opened state in which the catheter housing is collapsed exposing the funnel of the intermittent catheter for removal of the intermittent catheter from the catheter housing. a funnel (118;218;318) having a funnel opening (122;222;322) for voiding urine; and a catheter tube (120;220;320) coupled to the funnel, the intermittent-catheter assembly having: a storage state in which the intermittent catheter is sealed within the catheter housing; and an opened state in which the catheter housing is collapsed exposing the funnel of the intermittent catheter for removal of the intermittent catheter from the catheter housing. a storage state in which the intermittent catheter is sealed within the catheter housing; and an opened state in which the catheter housing is collapsed exposing the funnel of the intermittent catheter for removal of the intermittent catheter from the catheter housing.
A method of manufacturing a heterogeneous composite, the method comprising the steps of: - providing a first constituent and a second constituent , ∘ wherein the first constituent is porous, ∘ and the second constituent comprises a solid having thermoplastic properties, - positioning the second constituent relative to the first constituent and coupling energy into the second constituent to cause at least portions of the second constituent to liquefy and to penetrate into pores or other structures of the first constituent , whereby the first constituent is interpenetrated by material of the second constituent to yield a composite comprising the first constituent , the second constituent and an interpenetration zone between the first and second constituent; and - causing an irreversible transition at least of the second constituent to yield a modified composite, characterized in that the irreversible transition comprises a chemical reaction taking place within the second constituent or between the first and second constituents. - providing a first constituent and a second constituent , ∘ wherein the first constituent is porous, ∘ and the second constituent comprises a solid having thermoplastic properties, ∘ wherein the first constituent is porous, ∘ and the second constituent comprises a solid having thermoplastic properties, - positioning the second constituent relative to the first constituent and coupling energy into the second constituent to cause at least portions of the second constituent to liquefy and to penetrate into pores or other structures of the first constituent , whereby the first constituent is interpenetrated by material of the second constituent to yield a composite comprising the first constituent , the second constituent and an interpenetration zone between the first and second constituent; and - causing an irreversible transition at least of the second constituent to yield a modified composite,
A molded body comprising a resin substrate, wherein a part or all of a surface of the substrate is coated with a hard coat, the hard coat comprises, from a surface layer side, a first hard coat layer and a second hard coat layer, the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, and the following (i) and (ii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; and (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more. a part or all of a surface of the substrate is coated with a hard coat, the hard coat comprises, from a surface layer side, a first hard coat layer and a second hard coat layer, the first hard coat is formed of a coating material containing no inorganic particles, the second hard coat is formed of a coating material containing inorganic particles, and the following (i) and (ii) are satisfied: (i) a total light transmittance, measured as described in the description, of 85% or more; and (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more. (i) a total light transmittance, measured as described in the description, of 85% or more; and (ii) a pencil hardness, measured as described in the description, on the first hard coat surface of 5H or more.
A method of making a window spacer for a window assembly including at least two window sheets of a transparent, translucent, or semi- transparent material, the method comprising: arranging at least a portion of first and second elongate strips of a solid material, such as a metal or a plastic, in a spaced relationship, the first elongate strip defining a first surface and the second elongate strip defining a second surface; extruding a sidewall material through an extrusion die to form first and second sidewalls; and moving the first and second elongate strips relative to the extrusion die while extruding to apply the first and second sidewalls to the first surface of the first elongate strip and to the second surface of the second elongate strip to connect the first and second elongate strips, wherein the first elongate strip is configured to have a first edge adjacent one of the at least two window sheets and a second edge adjacent the other one of the at least two window sheets, and wherein the second elongate strip is configured to have a first edge adjacent one of the at least two window sheets and a second edge adjacent the other one of the at least two window sheets, wherein arranging and moving the first and second elongate strips comprises passing the first and second elongate strips through a guide that orients the first and second elongate strips in a parallel arrangement and in the spaced relationship, wherein the guide and the extrusion die are arranged such that the first and second sidewalls are offset from the edges of the first and second elongate strips, respectively. arranging at least a portion of first and second elongate strips of a solid material, such as a metal or a plastic, in a spaced relationship, the first elongate strip defining a first surface and the second elongate strip defining a second surface; extruding a sidewall material through an extrusion die to form first and second sidewalls; and moving the first and second elongate strips relative to the extrusion die while extruding to apply the first and second sidewalls to the first surface of the first elongate strip and to the second surface of the second elongate strip to connect the first and second elongate strips, wherein the first elongate strip is configured to have a first edge adjacent one of the at least two window sheets and a second edge adjacent the other one of the at least two window sheets, and wherein the second elongate strip is configured to have a first edge adjacent one of the at least two window sheets and a second edge adjacent the other one of the at least two window sheets, wherein arranging and moving the first and second elongate strips comprises passing the first and second elongate strips through a guide that orients the first and second elongate strips in a parallel arrangement and in the spaced relationship, wherein the guide and the extrusion die are arranged such that the first and second sidewalls are offset from the edges of the first and second elongate strips, respectively.
A solid oxide fuel cell single cell (C), comprising: a fuel cell unit in which an anode electrode , a solid electrolyte layer and a cathode electrode are sequentially laminated; a separator ; and a current collection assisting layer disposed between the cathode electrode of the fuel cell unit and the separator , wherein the separator comprises protruded portions that are in contact with the current collection assisting layer to form gas channels (G) between the separator and the current collection assisting layer , characterized in that at least a part of an end of the cathode electrode in a planar direction of the cathode electrode extends outward beyond an end of the current collection assisting layer in a planar direction of the current collection assisting layer . wherein the separator comprises protruded portions that are in contact with the current collection assisting layer to form gas channels (G) between the separator and the current collection assisting layer , characterized in that at least a part of an end of the cathode electrode in a planar direction of the cathode electrode extends outward beyond an end of the current collection assisting layer in a planar direction of the current collection assisting layer .
Method of preparing an intermediate asymmetric imidazolium salt of formula 1A: wherein R1 is an aromatic group, R2 is selected from a secondary cyclic aliphatic alkyl group and a heteroalkyl group, R3 and R4 are selected independently of one another from the group consisting of hydrogen, a halide and an alkyl group, and A - is an anion, comprising the following steps: a. forming a reaction mixture by contacting one equivalent (1 eq) of an aniline of formula 2 : with one equivalent (1 eq) of a compound of formula 3 : in the presence of at least four point five equivalents (4.5 eq) of a Brønsted acid of formula 4 : AH ; b. forming a solution comprising one equivalent (1 eq) of a dicarbonyl of formula 5 one equivalent (1 eq) of formaldehyde, and at least four point five equivalents (4.5 eq) of the Brønsted acid of formula 4, heating said solution to about 80°C and then adding the reaction mixture formed in step a.; c. stirring for at least 2 hours at about 80°C; and d. isolating the intermediate asymmetric imidazolium salt of formula 1A. R1 is an aromatic group, R2 is selected from a secondary cyclic aliphatic alkyl group and a heteroalkyl group, R3 and R4 are selected independently of one another from the group consisting of hydrogen, a halide and an alkyl group, and A - is an anion, a. forming a reaction mixture by contacting one equivalent (1 eq) of an aniline of formula 2 : with one equivalent (1 eq) of a compound of formula 3 : in the presence of at least four point five equivalents (4.5 eq) of a Brønsted acid of formula 4 : AH ; b. forming a solution comprising one equivalent (1 eq) of a dicarbonyl of formula 5 one equivalent (1 eq) of formaldehyde, and at least four point five equivalents (4.5 eq) of the Brønsted acid of formula 4, heating said solution to about 80°C and then adding the reaction mixture formed in step a.; c. stirring for at least 2 hours at about 80°C; and d. isolating the intermediate asymmetric imidazolium salt of formula 1A.
A method for notifying sidelink assistance information performed by a first terminal, comprising: sending the sidelink assistance information to a second terminal in a case that a preset trigger condition is satisfied, wherein the trigger condition comprises at least one of the following: the first terminal detects a transmission resource reserved by the second terminal; the first terminal detects that a transmission resource of the second terminal and a transmission resource of the first terminal overlap; characterized in that , the sidelink assistance information is sent to the second terminal at a preset time position after a time position at which the preset trigger condition is satisfied, and maximum time duration between the preset time position and the time position at which the preset trigger condition is satisfied is x and/or minimum time duration there between is y, wherein x and y are values specified in a protocol, or configured or pre-configured by a control node. sending the sidelink assistance information to a second terminal in a case that a preset trigger condition is satisfied, wherein the trigger condition comprises at least one of the following: the first terminal detects a transmission resource reserved by the second terminal; the first terminal detects that a transmission resource of the second terminal and a transmission resource of the first terminal overlap; characterized in that , the sidelink assistance information is sent to the second terminal at a preset time position after a time position at which the preset trigger condition is satisfied, and maximum time duration between the preset time position and the time position at which the preset trigger condition is satisfied is x and/or minimum time duration there between is y, wherein x and y are values specified in a protocol, or configured or pre-configured by a control node. the first terminal detects a transmission resource reserved by the second terminal; the first terminal detects that a transmission resource of the second terminal and a transmission resource of the first terminal overlap; characterized in that , the sidelink assistance information is sent to the second terminal at a preset time position after a time position at which the preset trigger condition is satisfied, and maximum time duration between the preset time position and the time position at which the preset trigger condition is satisfied is x and/or minimum time duration there between is y, wherein x and y are values specified in a protocol, or configured or pre-configured by a control node.
An initialising system for a refrigerant compressor unit , including a refrigerant compressor , an electrical drive motor for the refrigerant compressor and a compressor controller that determines the voltage and speed of the drive motor on the basis of sets of configuration parameters (VKx, MKx, KKx) loaded into this compressor controller and controls the drive motor accordingly, wherein the initialising system has a compressor data memory , in which compressor data (VD) relating to respectively possible refrigerant compressors are stored, and a motor data memory , in which motor data (MD) relating to possible drive motors are stored, wherein the initialising system has a processor for performing the initialising, a display unit and an input unit , wherein during initialisation the display unit and the input unit serve to determine the refrigerant compressor and the drive motor , and wherein the processor uses the compressor data (VDx) of the determined refrigerant compressor (Vx) and uses the motor data (MDx) of the determined drive motor (Mx) to generate compressor configuration parameters (VKx) and motor configuration parameters (MKx) and loads them into the compressor controller for the purpose of operating the drive motor .
A molded resin product for use with a cartridge (A) detachably mountable to a main assembly (B) of an image forming apparatus, the cartridge (A) having a connection part with an electrical contact portion , comprising: a base portion formed of a resin material; a positioning portion provided on said base portion , configured to position said molded resin product relative to the connection part when said molded resin product is connected to the connection part ; and a movable member formed of an electroconductive resin and by injection molding, characterized in that , in a state, in which said molded resin product is connected to the connection part , said movable member is configured to move between a contact position where said movable member is in electrical contact with the electrical contact portion of the connection part and a non-contact position where said movable member is not in electrical contact with the electrical contact portion of the connection part . a base portion formed of a resin material; a positioning portion provided on said base portion , configured to position said molded resin product relative to the connection part when said molded resin product is connected to the connection part ; and a movable member formed of an electroconductive resin and by injection molding, characterized in that , in a state, in which said molded resin product is connected to the connection part , said movable member is configured to move between a contact position where said movable member is in electrical contact with the electrical contact portion of the connection part and a non-contact position where said movable member is not in electrical contact with the electrical contact portion of the connection part .
A method of fabricating an object which comprises at least one polyamide material, by three-dimensional inkjet printing, the method comprising: receiving three-dimensional printing data corresponding to the shape of the object; dispensing droplets of at least a first model formulation and a second model formulation in layers, on a receiving medium, according to said printing data; and exposing said layers to a curing energy, said curing energy comprising heat, wherein said first model formulation comprises a lactam and a catalyst for inducing anionic ring opening polymerization of said lactam, and said second model formulation comprises an activator for promoting said anionic ring opening polymerization of said lactam, and wherein at least one of said first and second model formulations further comprises an amine-containing compound capable of increasing a rate of said polymerization upon exposure to said curing energy, said compound being an aliphatic or alicyclic, monomeric, oligomeric or polymeric compound featuring at least one primary, secondary and/or tertiary amine groups, thereby fabricating the object. receiving three-dimensional printing data corresponding to the shape of the object; dispensing droplets of at least a first model formulation and a second model formulation in layers, on a receiving medium, according to said printing data; and exposing said layers to a curing energy, said curing energy comprising heat, wherein said first model formulation comprises a lactam and a catalyst for inducing anionic ring opening polymerization of said lactam, and said second model formulation comprises an activator for promoting said anionic ring opening polymerization of said lactam, and wherein at least one of said first and second model formulations further comprises an amine-containing compound capable of increasing a rate of said polymerization upon exposure to said curing energy, said compound being an aliphatic or alicyclic, monomeric, oligomeric or polymeric compound featuring at least one primary, secondary and/or tertiary amine groups, thereby fabricating the object.