mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an oxymethylene copolymer, comprising: a step 1 in which a polymerization initiator containing perchloric acid or a derivative thereof is prepared; a step 2 in which a copolymer starting material containing trioxane and a comonomer, the copolymer starting material being obtained by mixing the polymerization initiator prepared in the step 1 and a composition containing trioxane, is subjected to a polymerization reaction at 65°C to 125°C; and a step 3 in which a polymerization terminator is added to a product obtained in the step 2 to obtain a crude oxymethylene copolymer, wherein: the copolymer starting material contains triethanolamine in an amount of 0.048×10 -6 mol to 0.25×10 -6 mol relative to 1 mol of all monomers that are the total of the trioxane and comonomer; and when the difference between the amount X of perchloric acid per 1 mol of all the monomers (mol/mol) and the amount Y of triethanolamine per 1 mol of all the monomers (mol/mol) is regarded as an effective polymerization initiator amount Z (mol/mol) and defined by formula below, the effective polymerization initiator amount Z in the copolymer starting material is from greater than 0 to 0.2×10 -6. Z=X-Y a step 1 in which a polymerization initiator containing perchloric acid or a derivative thereof is prepared; a step 2 in which a copolymer starting material containing trioxane and a comonomer, the copolymer starting material being obtained by mixing the polymerization initiator prepared in the step 1 and a composition containing trioxane, is subjected to a polymerization reaction at 65°C to 125°C; and a step 3 in which a polymerization terminator is added to a product obtained in the step 2 to obtain a crude oxymethylene copolymer, wherein: the copolymer starting material contains triethanolamine in an amount of 0.048×10 -6 mol to 0.25×10 -6 mol relative to 1 mol of all monomers that are the total of the trioxane and comonomer; and when the difference between the amount X of perchloric acid per 1 mol of all the monomers (mol/mol) and the amount Y of triethanolamine per 1 mol of all the monomers (mol/mol) is regarded as an effective polymerization initiator amount Z (mol/mol) and defined by formula below, the effective polymerization initiator amount Z in the copolymer starting material is from greater than 0 to 0.2×10 -6. Z=X-Y the copolymer starting material contains triethanolamine in an amount of 0.048×10 -6 mol to 0.25×10 -6 mol relative to 1 mol of all monomers that are the total of the trioxane and comonomer; and when the difference between the amount X of perchloric acid per 1 mol of all the monomers (mol/mol) and the amount Y of triethanolamine per 1 mol of all the monomers (mol/mol) is regarded as an effective polymerization initiator amount Z (mol/mol) and defined by formula below, the effective polymerization initiator amount Z in the copolymer starting material is from greater than 0 to 0.2×10 -6. Z=X-Y
Use of a purification catalyst for purifying a gas inside a polymer film production furnace, the purification catalyst containing a mixed oxide composed of a manganese-based oxide containing manganese and potassium and having a cryptomelane structure, and copper oxide.
An improved process for preparation of Sugammadex sodium comprising the steps of: (i) reacting gamma-cyclodextrin having the Formula-I, with phosphorous halide of Formula PX 5 or PX 3 in an organic solvent to obtain 6-perdeoxy-6-per-halo gamma cyclodextrin of Formula-II, wherein X is Cl; (ii) reacting the 6-perdeoxy-6-per-halo gamma cyclodextrin of Formula-II with 3-mercapto propionic acid in presence of 30% sodium methoxide in an organic solvent to obtain Sugammadex sodium. (i) reacting gamma-cyclodextrin having the Formula-I, with phosphorous halide of Formula PX 5 or PX 3 in an organic solvent to obtain 6-perdeoxy-6-per-halo gamma cyclodextrin of Formula-II, wherein X is Cl; (ii) reacting the 6-perdeoxy-6-per-halo gamma cyclodextrin of Formula-II with 3-mercapto propionic acid in presence of 30% sodium methoxide in an organic solvent to obtain Sugammadex sodium.
Method for manufacturing a hot-formed and press-hardened steel component, in particular vehicle component, with strength properties that are partially different from each other, characterised by the following method steps: - Heating a blank of a hardenable steel alloy in a heating station wherein at least one first region is heated to above austenitization temperature and at least one second region is heated to below austenitization temperature, preferably less than Ac1 and a transition region is formed between both regions, - transferring the blank heated in this manner to a tempering station or a hot-forming and press-hardening tool wherein the tempering station or the hot-forming and press-hardening tool is formed in a segmented manner and comprises at least one tempering segment wherein the tempering segment is arranged in the region of the resulting transition region of the blank with temperatures that partially differ from each other, - tempering the transition region before or during the press-hardening, - hot-forming and press-hardening the steel component with at least one hard region and one soft region as well as a transition area located therebetween wherein the transition area has a smaller surface than the transition region. - Heating a blank of a hardenable steel alloy in a heating station wherein at least one first region is heated to above austenitization temperature and at least one second region is heated to below austenitization temperature, preferably less than Ac1 and a transition region is formed between both regions, - transferring the blank heated in this manner to a tempering station or a hot-forming and press-hardening tool wherein the tempering station or the hot-forming and press-hardening tool is formed in a segmented manner and comprises at least one tempering segment wherein the tempering segment is arranged in the region of the resulting transition region of the blank with temperatures that partially differ from each other, - tempering the transition region before or during the press-hardening, - hot-forming and press-hardening the steel component with at least one hard region and one soft region as well as a transition area located therebetween wherein the transition area has a smaller surface than the transition region.
Exchangeable filter, in particular spin-on filter, of a filter apparatus for fluid, in particular liquid, in particular oil or fuel, in particular of an internal combustion engine, in particular of a motor vehicle, wherein the exchangeable filter features: - a filter housing, in particular a housing pot, in which at least one filter element is or can be disposed, - a connecting body disposed frontally on the filter housing, which is provided with at least one fluid opening, in particular with at least one eccentric fluid opening, and with a central opening located in the center, - a filter-sided connecting part of a connecting means for detachably connecting the exchangeable filter with a filter head of the filter apparatus, - at least one filter-sided locking part of at least one locking means for detachably locking the connecting means, wherein the filter-sided connecting part can be detachably connected by means of a plug-in/rotational motion with respect to a connecting axis to the filter head, wherein the at least one filter-sided locking part can be locked automatically by means of the plug-in/rotational motion with a corresponding head-sided locking part of the locking means and wherein at least one filter-sided locking part features at least one filter-sided latching portion of a latching connection for latching with a head-sided latching portion of a head-sided locking part of the at least one locking means in a locked state, and features at least one support portion (118; 218; 318; 518) on the side of the the filter-sided locking part facing radially away from the at least one filter-sided latching portion with respect to the connecting axis for indirectly or directly supporting the at least one filter-sided locking part with respect to at least one housing-sided radially inner peripheral portion at least in the radial direction at least in the locked state. - a filter housing, in particular a housing pot, in which at least one filter element is or can be disposed, - a connecting body disposed frontally on the filter housing, which is provided with at least one fluid opening, in particular with at least one eccentric fluid opening, and with a central opening located in the center, - a filter-sided connecting part of a connecting means for detachably connecting the exchangeable filter with a filter head of the filter apparatus, - at least one filter-sided locking part of at least one locking means for detachably locking the connecting means,
A mobile communication system, comprising: a User Equipment, UE, configured to set first information indicating that the UE supports Cellular Internet of Things, CIoT, data transfer using a Control plane, C-plane, or a User plane, U-plane; and a mobility management node configured to receive, from the UE, a request message including the first information and send, to the UE, an accept message including second information indicating that the mobility management node supports the CIoT data transfer using the C-Plane or the U-plane, characterized by the UE configured to send, after completion of a registration procedure, a Radio Resource Control, RRC, connection setup complete message including small data and third information indicating that the UE supports the CIoT data transfer using the C-plane or the U-plane, to a base station. a User Equipment, UE, configured to set first information indicating that the UE supports Cellular Internet of Things, CIoT, data transfer using a Control plane, C-plane, or a User plane, U-plane; and a mobility management node configured to receive, from the UE, a request message including the first information and send, to the UE, an accept message including second information indicating that the mobility management node supports the CIoT data transfer using the C-Plane or the U-plane, characterized by the UE configured to send, after completion of a registration procedure, a Radio Resource Control, RRC, connection setup complete message including small data and third information indicating that the UE supports the CIoT data transfer using the C-plane or the U-plane, to a base station.
A valve preparation device for severing heart valve leaflets, the valve preparation device comprising: a first catheter; and a severing apparatus configured to sever calcified heart valve leaflets, wherein the severing apparatus includes a wire and a first arm that is biased to bow outwardly with respect to the wire; the first arm further including a first electrode; a tip connected to a distal end of the wire; and wherein the first catheter is slidably movable from a delivery position in which the first catheter covers the severing apparatus and a deployed position in which the first catheter is proximally retracted to uncover the severing apparatus a first catheter; and a severing apparatus configured to sever calcified heart valve leaflets, wherein the severing apparatus includes a wire and a first arm that is biased to bow outwardly with respect to the wire; the first arm further including a first electrode; a tip connected to a distal end of the wire; and wherein the first catheter is slidably movable from a delivery position in which the first catheter covers the severing apparatus and a deployed position in which the first catheter is proximally retracted to uncover the severing apparatus
Sling for supporting the urethra, comprising an oblong median portion and anchoring end portions, characterized in that a first mesh of synthetic, biocompatible, non-absorbable polymer extends from one end portion to the other through the median portion, a second mesh of synthetic, biocompatible, non-absorbable polymer having average porosity lower than the average porosity of the first mesh, but nevertheless greater than 100 μm, being joined to and superimposed on the parts of the first mesh belonging to the end portions.
A computer-implemented method at a centralized service (115, 200, 300) for providing a client system (100, 390) access to one or more devices (130, 140, 150, 250, 315, 320, 340) through a network provider in a computerized network environment including the client system, the network provider, and the one or more devices that can be accessed locally or over a network, the method comprising the following: an act of identifying one or more devices that can be accessed with respective identifiers, wherein each identifier represents either a device, or a partition or file representing a portion of a device of the one or more devices; an act of generating a target (370, 380) by allocating at least two of the identifiers to the target; an act of associating client authorization information identified by the network provider with the target; and an act of assigning the target to a port through a protocol-independent port driver at the network provider. an act of identifying one or more devices that can be accessed with respective identifiers, wherein each identifier represents either a device, or a partition or file representing a portion of a device of the one or more devices; an act of generating a target (370, 380) by allocating at least two of the identifiers to the target; an act of associating client authorization information identified by the network provider with the target; and an act of assigning the target to a port through a protocol-independent port driver at the network provider.
A system for digitally correcting for a yaw angle disparity between a pair of imaging sensors, comprising: a control module configured to: obtain a first image data of an object from a first imaging sensor; obtain a second image data of the object from a second imaging sensor; determine a stereoscopic first depth of the object using the first image data and the second image data; determine an autofocus second depth of the object from autofocus lens positions of the first imaging sensor and the second imaging sensor; compare the first depth and the second depth; and digitally correct for the yaw angle disparity between the first imaging sensor and the second imaging sensor based on the difference between the first depth and the second depth via iteratively estimating a yaw angle correction based on the difference between the first depth and the second depth, and projecting or warping image data captured by one of the pair of imaging sensors based on the estimated yaw angle correction, until the first depth and the second depth are equal. obtain a first image data of an object from a first imaging sensor; obtain a second image data of the object from a second imaging sensor; determine a stereoscopic first depth of the object using the first image data and the second image data; determine an autofocus second depth of the object from autofocus lens positions of the first imaging sensor and the second imaging sensor; compare the first depth and the second depth; and digitally correct for the yaw angle disparity between the first imaging sensor and the second imaging sensor based on the difference between the first depth and the second depth via iteratively estimating a yaw angle correction based on the difference between the first depth and the second depth, and projecting or warping image data captured by one of the pair of imaging sensors based on the estimated yaw angle correction, until the first depth and the second depth are equal.
An antibody or an antigen-binding fragment thereof which specifically binds the alpha 3 domain of a HLA-G protein and which recognizes a conformational epitope contained in an amino acid sequence having SEQ ID No. 1 and which blocks the binding of a HLA-G protein exhibiting an alpha 3 domain to at least one of leukocyte immunoglobulin-like receptor B1 (LILRB1) or leukocyte immunoglobulin-like receptor B2 (LILRB2) receptors, in particular which blocks the binding of said HLA-G protein to both LILRB1 and LILRB2 receptors.
A method for producing a radially anisotropic ring magnet (120, 210) having at least one axial groove on the inner surface, comprising using a die comprising a cylindrical, magnetic core, a magnetic core sleeve having an axial ridge on the outer surface in alignment with said groove and fixed to the outer peripheral surface of said magnetic core, and an outer, cylindrical, magnetic die member defining a cavity for forming said radially anisotropic ring magnet (120, 210) with said magnetic core sleeve, and compression-molding magnet powder charged into said cavity while applying a magnetic field in a radial direction.
A method of characterizing a mixture of N-glycans, said method comprising steps of: (i) providing a glycan preparation, wherein the glycan preparation includes at least one negatively charged N-glycan and a known quantity of a reference N-glycan, wherein the reference N-glycan is labeled with a labeling agent; (ii) separating the glycan preparation by anion-exchange chromatography to generate a plurality of sample fractions; (iii) separating a first portion of the plurality of sample fractions by at least one secondary chromatographic technique; (iv) separating a second portion of the plurality of sample fractions by at least one secondary chromatographic technique that differs from the at least one second chromatographic technique from step (iii); and (v) quantifying at least one N-glycan in the glycan preparation relative to the reference N-glycan. (i) providing a glycan preparation, wherein the glycan preparation includes at least one negatively charged N-glycan and a known quantity of a reference N-glycan, wherein the reference N-glycan is labeled with a labeling agent; (ii) separating the glycan preparation by anion-exchange chromatography to generate a plurality of sample fractions; (iii) separating a first portion of the plurality of sample fractions by at least one secondary chromatographic technique; (iv) separating a second portion of the plurality of sample fractions by at least one secondary chromatographic technique that differs from the at least one second chromatographic technique from step (iii); and (v) quantifying at least one N-glycan in the glycan preparation relative to the reference N-glycan.
A system for creating tissue necrosis, said system comprising: a catheter including an outer shaft (300, 310, 270), and an elongate member (200, 250, 260) having a distal assembly at a distal end thereof, the distal assembly including an energy delivery apparatus configured to deliver a collimated beam of energy, wherein the catheter is configured to deliver the energy delivery apparatus to a body vessel, and wherein the energy delivery apparatus is configured to deliver the collimated beam of energy to a target tissue within a wall of the vessel without directly contacting the vessel, and wherein the elongate member (200, 250, 260) is configured to be translated and rotated with respect to the outer shaft (300, 270) to thereby translate and rotate the distal assembly within the vessel while delivering the collimated beam of energy in a generally radial direction to form a region of tissue necrosis in the wall of the vessel; and a controller operably coupled with the energy delivery apparatus and the catheter, wherein the controller controls at least in part the collimated beam of energy delivered, and wherein the controller controls the translation and rotation of the elongate member (200, 250, 260) with respect to the outer shaft (300, 270) while delivering the collimated beam of energy. a catheter including an outer shaft (300, 310, 270), and an elongate member (200, 250, 260) having a distal assembly at a distal end thereof, the distal assembly including an energy delivery apparatus configured to deliver a collimated beam of energy, wherein the catheter is configured to deliver the energy delivery apparatus to a body vessel, and wherein the energy delivery apparatus is configured to deliver the collimated beam of energy to a target tissue within a wall of the vessel without directly contacting the vessel, and wherein the elongate member (200, 250, 260) is configured to be translated and rotated with respect to the outer shaft (300, 270) to thereby translate and rotate the distal assembly within the vessel while delivering the collimated beam of energy in a generally radial direction to form a region of tissue necrosis in the wall of the vessel; and a controller operably coupled with the energy delivery apparatus and the catheter, wherein the controller controls at least in part the collimated beam of energy delivered, and wherein the controller controls the translation and rotation of the elongate member (200, 250, 260) with respect to the outer shaft (300, 270) while delivering the collimated beam of energy.
A method for facilitating Machine-to-Machine, M2M, communication, the method comprising: providing a first M2M system that implements one or more standardized Machine-to-Machine, M2M, Application Programming Interface, API, profiles that include common tasks and specialized tasks; receiving, by the first M2M system, a profile query over a network interface from a second peer M2M system; and responding, by the first M2M system, with information about the implemented one or more M2M API profiles that describe the functionalities it is able to provide, the method further including, without any human intervention: receiving information, by the first M2M system from the second peer M2M system, about an M2M API profile providing server from which a software update for a functionality not currently implemented can be obtained, receiving, from the M2M API profile providing server, the new functionality by the first M2M system, and completing a requested task based on the received new functionality by the first M2M system. providing a first M2M system that implements one or more standardized Machine-to-Machine, M2M, Application Programming Interface, API, profiles that include common tasks and specialized tasks; receiving, by the first M2M system, a profile query over a network interface from a second peer M2M system; and responding, by the first M2M system, with information about the implemented one or more M2M API profiles that describe the functionalities it is able to provide, the method further including, without any human intervention: receiving information, by the first M2M system from the second peer M2M system, about an M2M API profile providing server from which a software update for a functionality not currently implemented can be obtained, receiving, from the M2M API profile providing server, the new functionality by the first M2M system, and completing a requested task based on the received new functionality by the first M2M system. receiving information, by the first M2M system from the second peer M2M system, about an M2M API profile providing server from which a software update for a functionality not currently implemented can be obtained, receiving, from the M2M API profile providing server, the new functionality by the first M2M system, and completing a requested task based on the received new functionality by the first M2M system.