mhurhangee/ep-ind-claims huggingface dataset:
An infusion catheter assembly comprising a catheter body having an interior lumen and including a porous fluid distribution section having a predefined maximum length communicating with the interior lumen; at least one fluid delivery port for dispensing a fluid from an external source into communication with the porous fluid distribution section for infusion through the porous fluid distribution section at a flow rate; and a barrier mechanism (14, 44) movable within the catheter body to establish for the infusion catheter assembly an infinitely variable range of effective infusion lengths between the maximum length and any smaller length along the porous fluid distribution section, wherein the barrier mechanism comprises an expandable structure coupled to an inner catheter body sized and configured to be manipulated by sliding within the catheter body along the predefined maximum length of the porous fluid distribution section, and the inner catheter body includes the at least one fluid delivery port, wherein the expandable structure is configured to expand in response to introduction of a fluid.
An apparatus, comprising a detector assembly (3200,11200), said detector assembly comprising a housing (3202,11202), an optical detector (3212,11212), and a shutter (3230,11230), said housing (3202,11202) defining a channel (3209,11209) configured to receive a sample container (12700,3700) and defining a detection volume (3234,11210) configured to place the channel (3209,11209) in communication with the detector (3212,11212); said housing (3202,11202) including a first seal surface (3206,11206) and a second seal surface, wherein a first portion (12733,3733) of the sample container (12700,3700) and the first seal surface (3206,11206) are configured to isolate the detection volume (3234,11210) from a volume outside of the housing when a second portion (12732,3732) of the sample container (12700,3700) is disposed within the detection volume (3234,11210); said shutter (3230,11230) having a portion movably disposed within the housing (3209,11209) and being movable between a first shutter position and a second shutter position, wherein a seal surface of the shutter and the second seal surface of the housing are configured to isolate the detection volume (3234,11210) from the channel (3209,11209) of the housing when said shutter (3230,11230) is in the first shutter position, and wherein the channel (3209,11209) of the housing is in communication with the detection volume (3234,11210) when the shutter is in the second shutter position; characterised in that the shutter defines a calibration port including a calibration light source, wherein the calibration port is in communication with the detection volume (3234, 11210) and places the calibration light source in communication with the detector (3212,11212) when the shutter is in the first shutter position and wherein the calibration port is isolated from the detection volume (3234,11210) when the shutter is in the second shutter position.
A component supply unit arrangement determination method for a mounter, in which multiple component supply units are exchangeably arranged and which mounts a component on a board based on a job, the component supply unit arrangement determination method comprising: a) a step of selecting the component supply unit as the component supply unit to be exchanged with a component supply unit to be newly arranged with respect to switching of multiple jobs whose execution order is determined, in a way such that a time interval between a last job, in which the component supply unit to be exchanged is to be used last, and the switching becomes long, the component supply unit to be exchanged being selected among said component supply units that are arranged before the switching and are not planned to be used in a job after the switching; characterized in that in the step a), the component supply unit whose last job is the earliest job within the determined execution order of jobs, is preferentially selected; and b) a step of determining an arrangement position of the component supply unit to be exchanged selected in the step a) as an arrangement position of the component supply unit to be newly arranged. a) a step of selecting the component supply unit as the component supply unit to be exchanged with a component supply unit to be newly arranged with respect to switching of multiple jobs whose execution order is determined, in a way such that a time interval between a last job, in which the component supply unit to be exchanged is to be used last, and the switching becomes long, the component supply unit to be exchanged being selected among said component supply units that are arranged before the switching and are not planned to be used in a job after the switching; characterized in that in the step a), the component supply unit whose last job is the earliest job within the determined execution order of jobs, is preferentially selected; and b) a step of determining an arrangement position of the component supply unit to be exchanged selected in the step a) as an arrangement position of the component supply unit to be newly arranged.
A luminous glazing unit (100, 200, 300, 400, 500) comprising: - a glazing module with an edge face and main faces (11, 11') denoted face A and face B, said module including at least one first glazing pane, made of organic or mineral glass, of refractive index n1 of at least 1.4 at 550 nm with first and second main faces (11, 12); - a light source optically coupled to the glazing module, the glazing module thus forming a guide of light emitted by the light source; and - light-extracting means for extracting the guided light in order to form a scattering zone of width of at least 1 cm, said light-extracting means including a scattering layer comprising scattering dielectric particles bound by a matrix, said scattering layer being associated with one of the first or second faces; characterized in that the matrix is transparent and of refractive index n2 at least equal to n1 or such that n1-n2 is at most 0.15 at 550 nm and in that the scattering particles are mainly microparticles that are spaced apart from one another and that comprise a shell made of a transparent dielectric material and making contact with the transparent matrix, said shell surrounding a core of refractive index n3 of at most 1.15 at 550 nm, said core having a largest dimension called D3 in a range extending from 5 μm to 200 μm, the microparticles having a largest dimension called D' smaller than 2D 3. - a glazing module with an edge face and main faces (11, 11') denoted face A and face B, said module including at least one first glazing pane, made of organic or mineral glass, of refractive index n1 of at least 1.4 at 550 nm with first and second main faces (11, 12); - a light source optically coupled to the glazing module, the glazing module thus forming a guide of light emitted by the light source; and - light-extracting means for extracting the guided light in order to form a scattering zone of width of at least 1 cm, said light-extracting means including a scattering layer comprising scattering dielectric particles bound by a matrix, said scattering layer being associated with one of the first or second faces;
A support roller exchange device for exchanging a support roller of a roller hearth furnace, featuring: a housing, which can be sealed relative to the outer ambient atmosphere and features on its front side a lock that can be coupled to the roller hearth furnace, wherein said lock makes it possible to access a support roller of the roller hearth furnace to be dismounted from the interior of the housing under exclusion of the ambient atmosphere, and at least one support roller handling device (15, 15'), which is designed for dismounting and mounting support rollers and is displaceably arranged in the housing, wherein said support roller handling device is designed such that it can be at least partially moved out of the housing through the lock, characterized in that the support roller exchange device furthermore features a height adjusting device, which is coupled to the housing and designed for vertically positioning the housing and for additionally aligning the housing in a horizontal plane, wherein the horizontal plane may also be a plane that is inclined relative to the horizontal. a housing, which can be sealed relative to the outer ambient atmosphere and features on its front side a lock that can be coupled to the roller hearth furnace, wherein said lock makes it possible to access a support roller of the roller hearth furnace to be dismounted from the interior of the housing under exclusion of the ambient atmosphere, and at least one support roller handling device (15, 15'), which is designed for dismounting and mounting support rollers and is displaceably arranged in the housing, wherein said support roller handling device is designed such that it can be at least partially moved out of the housing through the lock, characterized in that the support roller exchange device furthermore features a height adjusting device, which is coupled to the housing and designed for vertically positioning the housing and for additionally aligning the housing in a horizontal plane, wherein the horizontal plane may also be a plane that is inclined relative to the horizontal.
A method for manufacturing a pouch film, the method comprising: applying an adhesive on one surface of a first polymer layer; depositing metal particles on the adhesive; applying heat and a pressure to the deposited metal particles to sinter the metal particles and thereby forming a gas barrier layer; and wherein, during the forming of the gas barrier layer, the heat that is applied to the deposited metal particles has a temperature of 50°C to 200°C and the pressure that is applied to the deposited metal particles is 50 MPa to 1000 MPa; and laminating a second polymer layer on one surface of the gas barrier layer. applying an adhesive on one surface of a first polymer layer; depositing metal particles on the adhesive; applying heat and a pressure to the deposited metal particles to sinter the metal particles and thereby forming a gas barrier layer; and wherein, during the forming of the gas barrier layer, the heat that is applied to the deposited metal particles has a temperature of 50°C to 200°C and the pressure that is applied to the deposited metal particles is 50 MPa to 1000 MPa; and laminating a second polymer layer on one surface of the gas barrier layer.
A recombinant Factor VIII protein comprising at least three amino acid substitutions at positions selected from the group consisting of Y748, L171, S507, N79, I80, I105, S112, L160, V184, N233, L235, V257, I265, N299, Y426, Y430, L505, F555, 1610, N616, I632, L706, N754, K1837, R1936, S2030, S2037, N2038, S2077, M2123, S2125, F2215, K2226, K2258, V2313, S2315, V2333 and Q2335; wherein substitutions of N are independently selected from the group consisting of D, H, S and E; wherein substitution of I are independently selected from the group consisting of T and V; wherein substitutions of S are independently selected from the group consisting of A, N, G, T and E; wherein substitutions of L are independently selected from the group consisting of N, Q, F and S; wherein substitutions of V are independently selected from the group consisting of A and T; wherein substitutions of Y are independently selected from the group consisting of N, H and S; wherein substitutions of F are independently selected from the group consisting of H and S; wherein substitutions of K are independently selected from the group consisting of N, D, E, Q, S and T; wherein substitutions of R are independently selected from the group consisting of Q, H and S; wherein substitutions of M are selected from the group consisting of R, Q, K and T; and/or wherein substitutions of Q are selected from the group consisting of R, D, E, H and K; wherein the positions are specified in relation to full length human Factor VIII molecule of SEQ ID NO: 1; and wherein the recombinant Factor VIII protein retains at least 50% coagulant activity, as determined in a chromogenic assay, compared to a Factor VIII protein consisting of SEQ ID NO: 2, or a fusion protein of said recombinant Factor VIII protein. wherein substitutions of N are independently selected from the group consisting of D, H, S and E; wherein substitution of I are independently selected from the group consisting of T and V; wherein substitutions of S are independently selected from the group consisting of A, N, G, T and E; wherein substitutions of L are independently selected from the group consisting of N, Q, F and S; wherein substitutions of V are independently selected from the group consisting of A and T; wherein substitutions of Y are independently selected from the group consisting of N, H and S; wherein substitutions of F are independently selected from the group consisting of H and S; wherein substitutions of K are independently selected from the group consisting of N, D, E, Q, S and T; wherein substitutions of R are independently selected from the group consisting of Q, H and S; wherein substitutions of M are selected from the group consisting of R, Q, K and T; and/or wherein substitutions of Q are selected from the group consisting of R, D, E, H and K; wherein the positions are specified in relation to full length human Factor VIII molecule of SEQ ID NO: 1; and wherein the recombinant Factor VIII protein retains at least 50% coagulant activity, as determined in a chromogenic assay, compared to a Factor VIII protein consisting of SEQ ID NO: 2, or a fusion protein of said recombinant Factor VIII protein.
A fluid collection device configured as a male urine collection device, comprising: a fluid impermeable barrier at least partially defining an opening and a chamber within the fluid collection device in fluid communication with the opening, the fluid impermeable barrier having a proximal end region and a distal end region; a fluid permeable body positioned at least partially within the chamber and extending at least partially between the distal end region and the proximal end region; and a tube extending into the chamber and having an end positioned proximate to the distal end region of the chamber, wherein the tube includes a tube opening at least proximate to the end of the tube and oriented to face at least a portion of the fluid permeable body; and wherein: the chamber narrows from the proximal end region to a tip at the distal end region, the fluid impermeable barrier having a bottom portion positioned to interface a user and defining the opening sized to receive at least a portion of a penis of the user therethrough, the bottom portion of the fluid impermeable barrier and a bottom portion of the fluid permeable body being substantially horizontal when the user is in a supine position characterised in that the opening being positioned between the distal end region and the proximal end region. a fluid impermeable barrier at least partially defining an opening and a chamber within the fluid collection device in fluid communication with the opening, the fluid impermeable barrier having a proximal end region and a distal end region; a fluid permeable body positioned at least partially within the chamber and extending at least partially between the distal end region and the proximal end region; and a tube extending into the chamber and having an end positioned proximate to the distal end region of the chamber, wherein the tube includes a tube opening at least proximate to the end of the tube and oriented to face at least a portion of the fluid permeable body; and wherein: the chamber narrows from the proximal end region to a tip at the distal end region, the fluid impermeable barrier having a bottom portion positioned to interface a user and defining the opening sized to receive at least a portion of a penis of the user therethrough, the bottom portion of the fluid impermeable barrier and a bottom portion of the fluid permeable body being substantially horizontal when the user is in a supine position characterised in that the opening being positioned between the distal end region and the proximal end region. the chamber narrows from the proximal end region to a tip at the distal end region, the fluid impermeable barrier having a bottom portion positioned to interface a user and defining the opening sized to receive at least a portion of a penis of the user therethrough, the bottom portion of the fluid impermeable barrier and a bottom portion of the fluid permeable body being substantially horizontal when the user is in a supine position characterised in that the opening being positioned between the distal end region and the proximal end region.
Tanning process comprising a rubberizing treatment in which during at least a wet phase of the tanning process there are elastomers in the treatment environment, characterized in that said elastomers are a polymer or a mixture of polymers belonging to the family of carboxylated thermoplastic elastomers, being in an amount of the dry weight of the product containing elastomers of at least 0.1% of the weight of the fresh salted leathers, or 0.5% of the weight of the wet shaved leathers, or 1% of the dry weight of said leathers.
A urinary alkalinization agent for use in a method for treatment or remission of cancer, or prevention of recurrence or metastasis of cancer, wherein the urinary alkalinization agent comprises sodium hydrogen carbonate and magnesium oxide, and wherein the urinary alkalinization agent is used in combination with an anti-cancer agent. wherein the urinary alkalinization agent comprises sodium hydrogen carbonate and magnesium oxide, and wherein the urinary alkalinization agent is used in combination with an anti-cancer agent.
A hydrogen generator comprising: a first tubular wall element extending along and thereby defining an axial direction; a second tubular wall element disposed outside said first tubular wall element and coaxially with said first tubular wall element, such that a tubular space is formed between said first and second tubular wall elements; a tubular water evaporator and a tubular reforming catalyst body arranged in said tubular space one after another with respect to said axial direction; a water inlet from which water is supplied to said water evaporator; and a feed gas inlet from which a feed gas is supplied to said water evaporator; wherein said hydrogen generator is configured to cause a gas mixture containing steam and the feed gas to flow from said water evaporator along said axial direction to said reforming catalyst body and to reform the gas mixture into a reformed gas containing hydrogen. a first tubular wall element extending along and thereby defining an axial direction; a second tubular wall element disposed outside said first tubular wall element and coaxially with said first tubular wall element, such that a tubular space is formed between said first and second tubular wall elements; a tubular water evaporator and a tubular reforming catalyst body arranged in said tubular space one after another with respect to said axial direction; a water inlet from which water is supplied to said water evaporator; and a feed gas inlet from which a feed gas is supplied to said water evaporator; wherein said hydrogen generator is configured to cause a gas mixture containing steam and the feed gas to flow from said water evaporator along said axial direction to said reforming catalyst body and to reform the gas mixture into a reformed gas containing hydrogen.
A liquid pump comprising: a casing; a feed pipe that brings liquid from outside the casing to inside the casing; a pump mechanism that is provided inside the casing, and that includes a suction hole through which the liquid is sucked in and a discharge hole through which the liquid sucked in via the suction hole is discharged; a suction space that is extended from an opening of the feed pipe to an inlet of the suction hole in the casing, and that connects a flow path formed by the feed pipe to the suction hole; and a discharge space that is positioned on a side with an outlet of the discharge hole in the casing and that connects to the discharge hole, wherein the suction space includes a gas accumulation area that is positioned above a center of the opening of the feed pipe on a side with the casing, in a cross section view of the liquid pump (1a, 1b, 1c), and that accumulates gas brought into the casing through the feed pipe together with the liquid to separate the gas from the liquid, characterized in that the suction space includes a reservoir area that holds the liquid; and the suction space has, as the reservoir area, a space having a capacity that is 20 to 300 times larger than the capacity of a working chamber of the pump mechanism. a casing; a feed pipe that brings liquid from outside the casing to inside the casing; a pump mechanism that is provided inside the casing, and that includes a suction hole through which the liquid is sucked in and a discharge hole through which the liquid sucked in via the suction hole is discharged; a suction space that is extended from an opening of the feed pipe to an inlet of the suction hole in the casing, and that connects a flow path formed by the feed pipe to the suction hole; and a discharge space that is positioned on a side with an outlet of the discharge hole in the casing and that connects to the discharge hole, wherein the suction space includes a gas accumulation area that is positioned above a center of the opening of the feed pipe on a side with the casing, in a cross section view of the liquid pump (1a, 1b, 1c), and that accumulates gas brought into the casing through the feed pipe together with the liquid to separate the gas from the liquid, characterized in that the suction space includes a reservoir area that holds the liquid; and the suction space has, as the reservoir area, a space having a capacity that is 20 to 300 times larger than the capacity of a working chamber of the pump mechanism.
Spacer (1, 1', 1") having a sealing element (2, 2', 3, 3'), the spacer having two support surfaces (22, 22', 23, 23') and a casing (29, 29'), wherein the casing (29, 29') has at least one outlet cross-section (10, 10') to allow a fluid to pass from a central free space (30, 30') of the spacer (1, 1', 1") into an atmosphere surrounding the spacer (1, 1', 1") or in a reverse direction, and at least one locking cross section (8, 8', 9, 9') for retaining the sealing element (2, 2', 3, 3'), wherein the sealing element (2, 2', 3, 3') comprises a sealing section (26, 26', 27, 27'), a retaining section (24, 24', 25, 25') and a connecting section (45, 45', 46, 46') which connects the two and forms a constriction (47, 47', 48, 48'), wherein the locking cross section (8, 8', 9, 9') accommodates the connecting section (45, 45', 46, 46') of the sealing element (2, 2', 3, 3'), wherein the retaining section (24, 24', 25, 25') of the sealing element (2, 2', 3, 3') is located in the free space (30, 30') and the sealing section (26, 26', 27, 27') of the sealing element (2, 2', 3, 3') is located in the surrounding atmosphere, characterized in that the locking cross section (8, 8', 9, 9') is open or openable in such a way that when the sealing element (2, 2', 3, 3') is mounted the connecting section (45, 45', 46, 46') thereof is insertable directly into the locking cross section (8, 8', 9, 9') in the axial direction of the spacer (1, 1', 1").