mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a component, wherein the method has the following steps of: providing a first component made of a first material, wherein a second material is arranged in a receptacle of the first component; heating the first component and the second material at least to a reaction temperature of the second material and/or of the first material, in order to join the second material and the first component; characterized by the following steps of: joining a further component made of a further material to the second material in order to join the further component to the first component, wherein the further material differs from the first material, wherein the further component is welded to the second material, wherein, in the heating step, the reaction temperature is higher than a melting temperature of the second material and/or the reaction temperature is lower than a melting temperature of the first material. providing a first component made of a first material, wherein a second material is arranged in a receptacle of the first component; heating the first component and the second material at least to a reaction temperature of the second material and/or of the first material, in order to join the second material and the first component; characterized by the following steps of: joining a further component made of a further material to the second material in order to join the further component to the first component, wherein the further material differs from the first material, wherein the further component is welded to the second material, wherein, in the heating step, the reaction temperature is higher than a melting temperature of the second material and/or the reaction temperature is lower than a melting temperature of the first material. joining a further component made of a further material to the second material in order to join the further component to the first component, wherein the further material differs from the first material, wherein the further component is welded to the second material, wherein, in the heating step, the reaction temperature is higher than a melting temperature of the second material and/or the reaction temperature is lower than a melting temperature of the first material.
A server configuration method comprising: performing (S202; 1) data mining according to a first domain name bandwidth, including a server bandwidth, and a local buffer hit ratio of a server to obtain a threshold corresponding to the first domain name bandwidth, the performing (S202; 1) including obtaining the first domain name bandwidth of a domain name and the local buffer hit ratio of the server from a user access log, and determining the threshold according to a correspondence between a value change of the first domain name bandwidth and a state change of the local buffer hit ratio of the server; and obtaining (S204; 2) a number of servers to be allocated according to the threshold and a size of a second domain name bandwidth. performing (S202; 1) data mining according to a first domain name bandwidth, including a server bandwidth, and a local buffer hit ratio of a server to obtain a threshold corresponding to the first domain name bandwidth, the performing (S202; 1) including obtaining the first domain name bandwidth of a domain name and the local buffer hit ratio of the server from a user access log, and determining the threshold according to a correspondence between a value change of the first domain name bandwidth and a state change of the local buffer hit ratio of the server; and obtaining the first domain name bandwidth of a domain name and the local buffer hit ratio of the server from a user access log, and determining the threshold according to a correspondence between a value change of the first domain name bandwidth and a state change of the local buffer hit ratio of the server; and obtaining (S204; 2) a number of servers to be allocated according to the threshold and a size of a second domain name bandwidth.
A blow molding device, comprising: a blow mold inside which a cavity is provided for accommodating therein a preform, except for a mouth portion which is an orifice end of the preform, the preform being preformed in a bottomed tubular shape; a blow nozzle provided to supply a first pressurized fluid into the preform through the mouth portion of the preform; characterized in that the device further comprises a partition wall member that air-tighlty or liquid-tightly surrounds an outer wall surface of the mouth portion of the preform with a tightly sealed space being formed between the outer wall surface of the mouth portion, the upper surface of the blow mold and the partition wall member to bring a lower end of the partition wall member into tight contact with an upper surface of the blow mold; and a pressurized fluid supply unit (24; 124) that supplies a second pressurized fluid into the space during blow molding. a blow mold inside which a cavity is provided for accommodating therein a preform, except for a mouth portion which is an orifice end of the preform, the preform being preformed in a bottomed tubular shape; a blow nozzle provided to supply a first pressurized fluid into the preform through the mouth portion of the preform; characterized in that the device further comprises a partition wall member that air-tighlty or liquid-tightly surrounds an outer wall surface of the mouth portion of the preform with a tightly sealed space being formed between the outer wall surface of the mouth portion, the upper surface of the blow mold and the partition wall member to bring a lower end of the partition wall member into tight contact with an upper surface of the blow mold; and a pressurized fluid supply unit (24; 124) that supplies a second pressurized fluid into the space during blow molding.
A left ventricular assist device (LVAD) system configured to reduce a risk of right heart failure in a patient following implantation of a LVAD in the patient, the left ventricular assist device (LVAD) system comprising: an LVAD; an implantable cardiac electronic device; a controller operably coupled with the LVAD and configured to: receive a plurality of pulmonary artery pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. an LVAD; an implantable cardiac electronic device; a controller operably coupled with the LVAD and configured to: receive a plurality of pulmonary artery pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. receive a plurality of pulmonary artery pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation.
A polylactic acid composition comprising a stereocomplex polylactic acid, the stereocomplex polylactic acid containing a poly-L-lactic acid and a poly-D-lactic acid and having a stereocomplex crystallinity of 90% or more as defined by the following equation (a): S = Δ H sc × 100 / Δ H ho + Δ H sc wherein ΔH sc represents the enthalpy (J/g) of stereocomplex crystals in the polylactic acid composition, and ΔH ho represents the enthalpy (J/g) of homocrystals in the polylactic acid composition, the content ratio between the poly-L-lactic acid and the poly-D-lactic acid being within a range of 80/20 to 20/80 (mass ratio), the polylactic acid composition containing a tin-based compound, a phosphorus-based compound, and further at least one of an organic acid metal salt of at least one member selected from alkali metals and alkaline earth metals, and an organic metal salt, in the case where the kind of metal of the organic acid metal salt is an alkali metal, the molar ratio of the phosphorus atom to the organic acid metal salt being within a range of 0.5 to 1.5, in the case where the kind of metal of the organic acid metal salt is an alkaline earth metal, the molar ratio of the phosphorus atom to the organic acid metal salt being within a range of 0.1 to 1.0, in the case of the organic metal salt, the molar ratio of the phosphorus atom to the organic metal salt being within a range of 0.5 to 2.2.
An electrochemical metal-air cell, comprising: a fuel electrode for oxidizing a metal fuel; an air electrode for absorbing and reducing gaseous oxygen; and an ionically conductive medium comprising a low temperature ionic liquid having a melting point at or below 150°C at 1 atm. (1.01x10 5 Pa) and contained in a space between the fuel electrode and the air electrode for conducting ions for supporting the electrochemical reactions at the fuel and air electrodes; wherein the ionic liquid contacts both the fuel electrode and the air electrode wherein the fuel electrode and the air electrode are flexible; wherein the fuel electrode and the air electrode are wound in a roll with an external surface of the air electrode exposed for absorbing gaseous oxygen; wherein that the electrochemical metal-air cell further comprises one or more seal members along a periphery of the fuel and air electrodes for sealing the space between the fuel and air electrodes to contain the ionic liquid therein, said seal members being electrically insulating to prevent electrical conduction between the fuel and air electrodes; and wherein the fuel electrode includes a backing attached to an external surface of the fuel electrode, wherein the backing is impermeable to the ionic liquid; characterized in that the backing is impermeable to air. a fuel electrode for oxidizing a metal fuel; an air electrode for absorbing and reducing gaseous oxygen; and an ionically conductive medium comprising a low temperature ionic liquid having a melting point at or below 150°C at 1 atm. (1.01x10 5 Pa) and contained in a space between the fuel electrode and the air electrode for conducting ions for supporting the electrochemical reactions at the fuel and air electrodes; wherein the ionic liquid contacts both the fuel electrode and the air electrode wherein the fuel electrode and the air electrode are flexible; wherein the fuel electrode and the air electrode are wound in a roll with an external surface of the air electrode exposed for absorbing gaseous oxygen; wherein that the electrochemical metal-air cell further comprises one or more seal members along a periphery of the fuel and air electrodes for sealing the space between the fuel and air electrodes to contain the ionic liquid therein, said seal members being electrically insulating to prevent electrical conduction between the fuel and air electrodes; and wherein the fuel electrode includes a backing attached to an external surface of the fuel electrode, wherein the backing is impermeable to the ionic liquid; characterized in that the backing is impermeable to air.
A centrifugal pump for pumping a fluid containing abrasive particles, said pump comprising a pump chamber, a wear plate, and a rotatable impeller, said wear plate being fixedly secured to said pump chamber and having a suction inlet forming a low pressure region configured for receipt of the fluid, said impeller having a front face and shaft rotatably supporting said impeller within said pump chamber, said pump chamber having a high pressure region located radially outward of said impeller, said shaft having a central axis about which said impeller rotates, said front face of said impeller having a first portion (40/72) and a second portion, said first portion of said front face being located immediately adjacent a first portion of said wear plate to form a recirculation zone therebetween, wherein said recirculation zone is in fluid communication with said high pressure region, said second portion of said front face being spaced apart from a second portion of said wear plate to form a small running clearance therebetween, said small running clearance being interposed between said recirculation zone and said low pressure region, said first portion of said front face of said impeller comprising plural pump-out vanes, characterized in that said wear plate includes a plurality of radially-oriented deflector vanes (80/82) that project from the first portion of said wear plate into said recirculation zone, wherein each of the plurality of radially-oriented deflector vanes (80/82) comprises a truncated triangular configuration having an inner width along a radial direction that is wider than an outer width along the radial direction, wherein said plurality of deflector vanes (80/82) are distributed circumferentially about said central rotation axis, said deflector vanes (80/82) being configured to cooperate with said pump-out vanes to expel abrasive particles and prevent them from collecting and eroding said small running clearance.
A detector for responding to infrared radiation from a target to produce a temperature indicating output signal to measurement electronics, said detector comprising: a plurality of thermocouples laid out on a substrate, each thermocouple comprising a first leg of a first material and a second leg of a second material, the first material being different from the second material, the first leg and the second leg being electrically connected, the plurality of thermocouples being divided into a first group comprising a plurality of first thermocouples electrically connected in series, and a second group comprising a plurality of second thermocouples electrically connected in series, the first group and the second group of thermocouples being electrically connected in series with one another at a connection point, said first group and said second group being supported on a common substrate in close proximity to one another and first legs of thermocouples of the first group being physically interleaved with first legs of thermocouples of the second group, characterized in that a thermocouple is physically made from a first material from a first stack of first and second materials not forming a thermocouple, and from a second material from a second stack of first and second materials not forming a thermocouple. a plurality of thermocouples laid out on a substrate, each thermocouple comprising a first leg of a first material and a second leg of a second material, the first material being different from the second material, the first leg and the second leg being electrically connected, the plurality of thermocouples being divided into a first group comprising a plurality of first thermocouples electrically connected in series, and a second group comprising a plurality of second thermocouples electrically connected in series, the first group and the second group of thermocouples being electrically connected in series with one another at a connection point, said first group and said second group being supported on a common substrate in close proximity to one another and first legs of thermocouples of the first group being physically interleaved with first legs of thermocouples of the second group, characterized in that a thermocouple is physically made from a first material from a first stack of first and second materials not forming a thermocouple, and from a second material from a second stack of first and second materials not forming a thermocouple.
A control module for controlling an x-ray imaging system during the acquisition of phase imaging data of an object using phase stepping, wherein during the phase stepping a plurality of step images, each with a different phase of an interference pattern relative to the object, is acquired with an x-ray imaging system, wherein the phase imaging data comprises the step images, wherein the control module comprises: a step image quantity providing unit for providing a step image quantity referring to a planned quantity of step images that are planned to be acquired during the phase stepping for acquiring the phase imaging data, a detector dose providing unit for providing a target detector dose, wherein the target detector dose corresponds to a radiation dose absorbed by at least a part of the detector during the acquisition of the phase imaging data that should not be exceeded, an applied detector dose determination unit for determining an applied detector dose indicative of a radiation dose absorbed by at least the part of the detector during the acquisition of a step image, a step image acquisition control unit for controlling the x-ray imaging system during the acquisition of each step image based on the applied detector dose, the target detector dose and the step image quantity, wherein the controlling comprises controlling acquisition parameters that each step image is acquired with. a step image quantity providing unit for providing a step image quantity referring to a planned quantity of step images that are planned to be acquired during the phase stepping for acquiring the phase imaging data, a detector dose providing unit for providing a target detector dose, wherein the target detector dose corresponds to a radiation dose absorbed by at least a part of the detector during the acquisition of the phase imaging data that should not be exceeded, an applied detector dose determination unit for determining an applied detector dose indicative of a radiation dose absorbed by at least the part of the detector during the acquisition of a step image, a step image acquisition control unit for controlling the x-ray imaging system during the acquisition of each step image based on the applied detector dose, the target detector dose and the step image quantity, wherein the controlling comprises controlling acquisition parameters that each step image is acquired with.
An antibody preparation suitable for intravenous administration in humans comprising IgG, IgA and at least 5% IgM antibodies by weight of the total amount of antibodies, wherein the preparation is prepared from human plasma, wherein the antibody preparation has specific complement activating activity, wherein the antibody preparation is prepared by a process which is capable of a more than 3log 10 removal of non-enveloped viruses and wherein in an in vitro assay with human serum suitable to determine the ability of the antibody preparation to activate complement unspecifically the antibody preparation generates: (i) substantially no C5a, such that the antibody preparation adjusted to an IgM concentration of 1.72 mg/ml generates less than 200 ng/ml C5a after 60 minutes of the assay; and/or (ii) substantially no C3a, such that the antibody preparation adjusted to an IgM concentration of 1.72 mg/ml generates less than 6000 ng/ml C3a after 60 minutes of the assay.
An induction-heating cooking system, comprising: - a first heating coil; - at least one second heating coil arranged close to the first heating coil for heating a single heated-subject in cooperation with each other; - first and second drive circuitries (14a, 14b) supplying high-frequency current of the same frequency individually to the first and second heating coils (2a, 2b); characterized by further comprising: - a first n-th order component extractor, with n being a natural number, extracting an n-th order drive current component of the drive current through the first heating coil and an n-th order drive voltage component of the drive voltage across the first heating coil; - a second n-th order component extractor, with n being a natural number, extracting an n-th order drive current component of the drive current through the second heating coil and an n-th order drive voltage component of the drive voltage across the second heating coil; and - a controller is adapted to calculate load resistance of the first and second heating coils based upon the n-th order drive current components and the n-th order drive voltage components extracted by the first and second n-th order component extractors, wherein the controller is adapted to control electric energy supplied from the first and second drive circuitries (14a, 14b) to the first and second heating coils (2a, 2b) in accordance with energy allocation ratios which depend upon the calculated load resistance ratio of the first and second heating coils (2a, 2b). - a first heating coil; - at least one second heating coil arranged close to the first heating coil for heating a single heated-subject in cooperation with each other; - first and second drive circuitries (14a, 14b) supplying high-frequency current of the same frequency individually to the first and second heating coils (2a, 2b); - a first n-th order component extractor, with n being a natural number, extracting an n-th order drive current component of the drive current through the first heating coil and an n-th order drive voltage component of the drive voltage across the first heating coil; - a second n-th order component extractor, with n being a natural number, extracting an n-th order drive current component of the drive current through the second heating coil and an n-th order drive voltage component of the drive voltage across the second heating coil; and - a controller is adapted to calculate load resistance of the first and second heating coils based upon the n-th order drive current components and the n-th order drive voltage components extracted by the first and second n-th order component extractors,