mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an enriched immunoglobulin composition from whole plasma or cryo-poor plasma, the method comprising the steps of: (a) co-precipitating immunoglobulins and alpha-1-antitrypsin (A1PI) from whole plasma or cryo-poor plasma, in a first precipitation step by the addition of ethanol to the whole plasma or cryo-poor plasma at a final concentration of from 20% to 30% (v/v) at a pH of from 5.0 to 6.0, to form a first precipitate and a first supernatant; (b) solubilizing immunoglobulins in the first precipitate using a solution having a pH between 4.0 and 4.9, to form a first suspension having a soluble portion comprising immunoglobulins and an insoluble portion comprising A1PI; (c) separating the soluble portion of the first suspension from the insoluble portion of the first suspension; and (d) recovering the soluble fraction of the first suspension, thereby forming an enriched immunoglobulin composition, wherein the immunoglobulins precipitated in step (a) are IgG immunoglobulins. (a) co-precipitating immunoglobulins and alpha-1-antitrypsin (A1PI) from whole plasma or cryo-poor plasma, in a first precipitation step by the addition of ethanol to the whole plasma or cryo-poor plasma at a final concentration of from 20% to 30% (v/v) at a pH of from 5.0 to 6.0, to form a first precipitate and a first supernatant; (b) solubilizing immunoglobulins in the first precipitate using a solution having a pH between 4.0 and 4.9, to form a first suspension having a soluble portion comprising immunoglobulins and an insoluble portion comprising A1PI; (c) separating the soluble portion of the first suspension from the insoluble portion of the first suspension; and (d) recovering the soluble fraction of the first suspension, thereby forming an enriched immunoglobulin composition,
Method for selecting a node in a local area network comprising nodes allowing an extension of wireless communication coverage in order to increase the range of the local area network by coordinating a plurality of access points incorporated in the nodes, the nodes being interconnected by an access-point interface of a backhaul network and a client interface of the backhaul network of another node, each node in the backhaul subnetwork sending at least one wireless network called fronthaul network, the nodes comprising at least two radio interfaces making it possible to communicate on two different channels, characterised in that the method comprises the steps, performed by an item of equipment for associating itself with the local area network, of: - obtaining (E300), from each node allowing an extension of wireless communication coverage, information comprising at least one item of information representing the hierarchical level of the node as well as an item of information indicating whether the client interface of the radio interface of the node of the backhaul subnetwork is connected to an access-point interface of the backhaul subnetwork of a node of a higher hierarchical level, - selecting (E305, E311), from the information obtained and from the nodes allowing an extension of coverage for which the information comprising at least one item of information representing the hierarchical level of the node and the information indicating whether the client interface of the radio interface of the node of the backhaul subnetwork is connected to an access-point interface of the backhaul subnetwork of a node of a higher hierarchical level has been obtained, the node allowing an extension of wireless communication coverage with which the equipment associates itself. - obtaining (E300), from each node allowing an extension of wireless communication coverage, information comprising at least one item of information representing the hierarchical level of the node as well as an item of information indicating whether the client interface of the radio interface of the node of the backhaul subnetwork is connected to an access-point interface of the backhaul subnetwork of a node of a higher hierarchical level, - selecting (E305, E311), from the information obtained and from the nodes allowing an extension of coverage for which the information comprising at least one item of information representing the hierarchical level of the node and the information indicating whether the client interface of the radio interface of the node of the backhaul subnetwork is connected to an access-point interface of the backhaul subnetwork of a node of a higher hierarchical level has been obtained, the node allowing an extension of wireless communication coverage with which the equipment associates itself.
Method for machining workpieces, in particular by means of a panel dividing system , in which, in a first method step, a workpiece (32-36) is automatically divided into a first partial workpiece (38-42) and at least a second partial workpiece (44-50), and in which, in a second method step, the second partial workpiece (44-50) is machined, characterized in that in the second method step, the first partial workpiece (38-42) produced in the first method step is still held by a positioning device and, for the machining of the second partial workpiece (44-50), is automatically positioned as a stop for the positioning of the second partial workpiece (44-50) relative to a machining device, and the second partial workpiece (44-50) is placed against the first partial workpiece (38-42). in the second method step, the first partial workpiece (38-42) produced in the first method step is still held by a positioning device and, for the machining of the second partial workpiece (44-50), is automatically positioned as a stop for the positioning of the second partial workpiece (44-50) relative to a machining device, and the second partial workpiece (44-50) is placed against the first partial workpiece (38-42).
A Wireless LAN, WLAN, Li-Fi transceiver , comprising: a Wi-Fi device , configured to: produce a spatial stream carrying data; and produce from the spatial stream a complex-valued signal comprising In-phase and Quadrature signal components; and an Analog Front-End , configured to: produce a Li-Fi signal in a predefined optical band; and transmit the data carried by the spatial stream to a remote Li-Fi receiver by driving an optical emitter with the Li-Fi signal; characterised in that the Wi-Fi device is configured to produce the complex-valued signal such that the complex-valued signal is centered about a Li-Fi frequency for the predefined optical band; and in that the Analog Front-End is configured to produce the Li-Fi signal based only on the In-phase signal component or only on the Quadrature signal component of the complex-valued signal. a Wi-Fi device , configured to: produce a spatial stream carrying data; and produce from the spatial stream a complex-valued signal comprising In-phase and Quadrature signal components; and produce a spatial stream carrying data; and produce from the spatial stream a complex-valued signal comprising In-phase and Quadrature signal components; and an Analog Front-End , configured to: produce a Li-Fi signal in a predefined optical band; and transmit the data carried by the spatial stream to a remote Li-Fi receiver by driving an optical emitter with the Li-Fi signal; produce a Li-Fi signal in a predefined optical band; and transmit the data carried by the spatial stream to a remote Li-Fi receiver by driving an optical emitter with the Li-Fi signal; characterised in that the Wi-Fi device is configured to produce the complex-valued signal such that the complex-valued signal is centered about a Li-Fi frequency for the predefined optical band; and in that the Analog Front-End is configured to produce the Li-Fi signal based only on the In-phase signal component or only on the Quadrature signal component of the complex-valued signal.
A balloon catheter assembly , comprising: an elongated member having a lumen extending longitudinally therethrough; a hub coupled to a proximal end of the elongated member; a sleeve , that is fixedly coupled to an inside of the hub; a support wire disposed within the elongated member; and an inflation balloon ; wherein a distal end of the inflation balloon is coupled to a distal end of the support wire , and wherein a proximal end of the support wire is disposed within the sleeve and the proximal end of the support wire is longitudinally displaceable within the sleeve, the proximal end of the support wire being operatively coupled to the hub such that the support wire transfers distally oriented forces exerted on the hub but not proximally oriented forces exerted on the hub, and the support wire is operatively coupled to the balloon catheter assembly such that the support wire does not exert a longitudinally compressive force on the inflation balloon. an elongated member having a lumen extending longitudinally therethrough; a hub coupled to a proximal end of the elongated member; a sleeve , that is fixedly coupled to an inside of the hub; a support wire disposed within the elongated member; and an inflation balloon ; wherein a distal end of the inflation balloon is coupled to a distal end of the support wire , and wherein a proximal end of the support wire is disposed within the sleeve and the proximal end of the support wire is longitudinally displaceable within the sleeve, the proximal end of the support wire being operatively coupled to the hub such that the support wire transfers distally oriented forces exerted on the hub but not proximally oriented forces exerted on the hub, and the support wire is operatively coupled to the balloon catheter assembly such that the support wire does not exert a longitudinally compressive force on the inflation balloon.
A card rendering method, wherein the method comprises: sending , by an electronic device, a request for obtaining related information of a target card to a server; receiving , by the electronic device, related information that is of a target card and that is sent by the server, wherein the related information of the target card comprises a first file package set, a first rendering instruction set, and a first layout snapshot that are of the target card; preliminarily rendering , by the electronic device, the target card according to the first rendering instruction set and based on the first layout snapshot, and displaying the preliminarily rendered target card on a display screen; parsing , by the electronic device, the first file package set of the target card to obtain a second rendering instruction set; selecting , by the electronic device, a rendering instruction in the second rendering instruction set other than the first rendering instruction set; and rendering again , by the electronic device, the target card according to the selected rendering instruction, and updating the target card displayed on the display screen sending , by an electronic device, a request for obtaining related information of a target card to a server; receiving , by the electronic device, related information that is of a target card and that is sent by the server, wherein the related information of the target card comprises a first file package set, a first rendering instruction set, and a first layout snapshot that are of the target card; preliminarily rendering , by the electronic device, the target card according to the first rendering instruction set and based on the first layout snapshot, and displaying the preliminarily rendered target card on a display screen; parsing , by the electronic device, the first file package set of the target card to obtain a second rendering instruction set; selecting , by the electronic device, a rendering instruction in the second rendering instruction set other than the first rendering instruction set; and rendering again , by the electronic device, the target card according to the selected rendering instruction, and updating the target card displayed on the display screen
Lens hood of an imaging device arranged on the inside of a motor vehicle window, in which a flat heating element is arranged in the bottom of the lens hood, with the lateral faces of the heating element parallel to the top and/or bottom of the floor, in which - the lens hood is produced by means of plastic injection moulding and - the flat heating element is arranged in the floor of the lens hood and covered by a layer of plastic on its top and bottom , characterised by - at least one spacer being arranged in the upper and/or lower plastic layer , keeping the flat heating element in its intermediate layer during plastic injection moulding, - the spacer(s) being made of textile material, - the textile material being permeable for liquid plastic and - the textile material having gaps that are permeable for liquid plastic. - the lens hood is produced by means of plastic injection moulding and - the flat heating element is arranged in the floor of the lens hood and covered by a layer of plastic on its top and bottom , characterised by - at least one spacer being arranged in the upper and/or lower plastic layer , keeping the flat heating element in its intermediate layer during plastic injection moulding, - the spacer(s) being made of textile material, - the textile material being permeable for liquid plastic and - the textile material having gaps that are permeable for liquid plastic.
A semiconductor device, comprising: an uppermost metal layer including a power supply enhancing wiring ; power supply wiring coupled to the power supply enhancing wiring through a via between the uppermost metal layer and a metal layer underlying the uppermost metal layer; at least one memory device component disposed in vertical alignment with the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer; and a memory bank, including: a plurality of sense amplifiers ; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats ; and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat ; wherein the at least one memory device component disposed in vertical alignment with the via includes the second edge mat, and wherein the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer is located in an area that lacks global input/output lines. an uppermost metal layer including a power supply enhancing wiring ; power supply wiring coupled to the power supply enhancing wiring through a via between the uppermost metal layer and a metal layer underlying the uppermost metal layer; at least one memory device component disposed in vertical alignment with the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer; and a memory bank, including: a plurality of sense amplifiers ; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats ; and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat ; a plurality of sense amplifiers ; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats ; and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat ; wherein the at least one memory device component disposed in vertical alignment with the via includes the second edge mat, and wherein the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer is located in an area that lacks global input/output lines.
An energy storage system , comprising: one or more energy storage devices positioned within a defined thermal zone ; and a thermal control system configured to provide a cooling airflow to the one or more energy storage devices , the thermal control system comprising: a heat exchanging device configured to provide a cooled airflow to the defined thermal zone , and a moveable element configured to adjust a distribution of airflow within the defined thermal zone ; wherein the moveable element comprises an airflow curtain configured to direct an exhaust airflow away from the one or more energy storage devices , wherein the exhaust airflow comprises an airflow that has provided cooling to the one or more energy storage devices ; and the airflow curtain comprises a flexible, electrically-insulating material. one or more energy storage devices positioned within a defined thermal zone ; and a thermal control system configured to provide a cooling airflow to the one or more energy storage devices , the thermal control system comprising: a heat exchanging device configured to provide a cooled airflow to the defined thermal zone , and a moveable element configured to adjust a distribution of airflow within the defined thermal zone ; wherein a heat exchanging device configured to provide a cooled airflow to the defined thermal zone , and a moveable element configured to adjust a distribution of airflow within the defined thermal zone ; wherein the moveable element comprises an airflow curtain configured to direct an exhaust airflow away from the one or more energy storage devices , wherein the exhaust airflow comprises an airflow that has provided cooling to the one or more energy storage devices ; and the airflow curtain comprises a flexible, electrically-insulating material.
Preparation vessel for a kitchen appliance , having at least one rotatable tool holder and a juicer insert which can be at least partially inserted into the preparation vessel , the juicer insert having at least one adapter element and at least one juicer tool , wherein the adapter element is designed to be coupled at least indirectly to the tool holder for transmitting a torque, wherein the juicer tool is connected to the adapter element so that a rotation of the adapter element causes a rotation of the juicer tool , characterized in that the juicer insert is designed in such a way that it can be completely inserted into the preparation vessel , and that the preparation vessel has at least one heating device with which foodstuffs that can be inserted into the preparation vessel can be heated.
A method of operating an elevator installation for maintenance by a technician , wherein the technician is required to stand on top of a roof of an elevator car , comprising: operating a drive system to move the elevator car along an elevator shaft in response to a call entered by the technician on a first floor (L1); and deactivating the drive system in response to a control signal generated by an elevator controller when a safety circuit of the elevator installation is interrupted, wherein interrupting the safety circuit is caused by a detector mounted on the elevator car detecting a signal transmitted by a service tool and having an intensity value that is about equal to a predetermined threshold value, wherein the service tool is introduced into a receptacle of a shaft door at the first floor (LI), and wherein after deactivation of the drive system the moving elevator car comes to a halt with its roof being at a level to allow the technician to step on top of the roof from the first floor (L1, L2). operating a drive system to move the elevator car along an elevator shaft in response to a call entered by the technician on a first floor (L1); and deactivating the drive system in response to a control signal generated by an elevator controller when a safety circuit of the elevator installation is interrupted, wherein interrupting the safety circuit is caused by a detector mounted on the elevator car detecting a signal transmitted by a service tool and having an intensity value that is about equal to a predetermined threshold value, wherein the service tool is introduced into a receptacle of a shaft door at the first floor (LI), and wherein after deactivation of the drive system the moving elevator car comes to a halt with its roof being at a level to allow the technician to step on top of the roof from the first floor (L1, L2).
Method for determining the degree of coverage of a metal part having undergone a treatment modifying the surface roughness of said part, characterised in that it comprises the following steps: - a step of determining a calibration function (C) of at least one parameter (L*, a*, b*, ΔE) of the CIELAB colour space as a function of the degree of coverage, in such a way as to be able to associate a given value of said at least one parameter (L*, a*, b*, ΔE) with the corresponding value of the degree of coverage, - a step of measuring the value of said at least one parameter (L*, a*, b*, ΔE) of said part, and - a step of determining the degree of coverage of said part, by associating, using the calibration function (C), to the value thus measured of said at least one parameter (L*, a*, b*, ΔE), the corresponding value of the degree of coverage of the part, in that the determination of a calibration function of said at least one parameter (L*, a*, b*, ΔE) of the CIELAB colour space as a function of the degree of coverage is achieved by measuring the value of a parameter of the CIELAB colour space for different values of degree of coverage of a calibration part, in that that the different values of the degree of coverage of the calibration part belong to a predetermined interval, and in that the predetermined interval of degree of coverage comprises values greater than 100%. - a step of determining a calibration function (C) of at least one parameter (L*, a*, b*, ΔE) of the CIELAB colour space as a function of the degree of coverage, in such a way as to be able to associate a given value of said at least one parameter (L*, a*, b*, ΔE) with the corresponding value of the degree of coverage, - a step of measuring the value of said at least one parameter (L*, a*, b*, ΔE) of said part, and - a step of determining the degree of coverage of said part, by associating, using the calibration function (C), to the value thus measured of said at least one parameter (L*, a*, b*, ΔE), the corresponding value of the degree of coverage of the part, in that the determination of a calibration function of said at least one parameter (L*, a*, b*, ΔE) of the CIELAB colour space as a function of the degree of coverage is achieved by measuring the value of a parameter of the CIELAB colour space for different values of degree of coverage of a calibration part, in that that the different values of the degree of coverage of the calibration part belong to a predetermined interval, and in that the predetermined interval of degree of coverage comprises values greater than 100%.
An extended release pharmaceutical composition of Clozapine in the form of multiparticulates like granules, pellets, beads, spheroids comprising: a) Clozapine, b) a seal coating, c) an acidic coating, and d) an extended release coating, wherein seal coat is present in between Clozapine and acidic coating, wherein the ratio of acidic substance to clozapine is 0.5:1 to 1:1 weight by weight (W/W). a) Clozapine, b) a seal coating, c) an acidic coating, and d) an extended release coating,