mhurhangee/patent-ind-claim-en huggingface dataset:
A clinical decision support system for estimating drug-related treatment optimization concerning inflammatory diseases and designed to output a probability of a flare connected to the application and/or a dosage of a predefined medication, the clinical decision support system comprising: - a computing unit designed to host a plurality of prediction models (M), the computing unit comprising an input interface designed for receiving input data (D) and an output interface designed to output results (R), - a plurality of different trained prediction models (M), wherein each model (M) is trained to predict the probability of treatment outcomes for a number of different drug-related treatment options and for a specific patient-group based on input data, and wherein a number of the different prediction models is trained to determine a risk of flares for different drug tapering scenarios, - a selection unit designed for automatically selecting one of these prediction models (M) depending on the input data (D) according to a predefined selection scheme, wherein the clinical decision support system is designed to produce output results (R) by processing the input data (D) with the selected prediction model (M), and wherein the selection unit is designed to search the input data for predefined data types and/or for values of pre-defined data types and to determine whether a predefined data type is present in the input data and/or to compare a value with a predefined threshold and/or to decide if the value fits a pre-defined requirement. - a computing unit designed to host a plurality of prediction models (M), the computing unit comprising an input interface designed for receiving input data (D) and an output interface designed to output results (R), - a plurality of different trained prediction models (M), wherein each model (M) is trained to predict the probability of treatment outcomes for a number of different drug-related treatment options and for a specific patient-group based on input data, and wherein a number of the different prediction models is trained to determine a risk of flares for different drug tapering scenarios, - a selection unit designed for automatically selecting one of these prediction models (M) depending on the input data (D) according to a predefined selection scheme, wherein the clinical decision support system is designed to produce output results (R) by processing the input data (D) with the selected prediction model (M), and wherein the selection unit is designed to search the input data for predefined data types and/or for values of pre-defined data types and to determine whether a predefined data type is present in the input data and/or to compare a value with a predefined threshold and/or to decide if the value fits a pre-defined requirement.
A container comprising: a capitula to put contents in and out in the container , and an inside container main body , in which an accommodating portion that accommodates the contents is formed, and an outside container main body , which is formed to an outer periphery side of the inside container main body , and which is formed to surround the inside container main body , and in which the inside container main body and the outside container main body are integrated in the capitula , and in which a side peripheral wall of the inside container main body and a side peripheral wall of the outside container main body are in contact with each other and are formed as a two-ply lamination portion at least in a portion of the side peripheral wall of the inside container main body , and in which a lower end of the side peripheral wall of the outside container main body includes an extended foot portion that is extended to be located downwardly from a bottom of the inside container main body , wherein the thickness of the inside container main body is smaller than the thickness of the outside container main body . a capitula to put contents in and out in the container , and an inside container main body , in which an accommodating portion that accommodates the contents is formed, and an outside container main body , which is formed to an outer periphery side of the inside container main body , and which is formed to surround the inside container main body , and in which the inside container main body and the outside container main body are integrated in the capitula , and in which a side peripheral wall of the inside container main body and a side peripheral wall of the outside container main body are in contact with each other and are formed as a two-ply lamination portion at least in a portion of the side peripheral wall of the inside container main body , and in which a lower end of the side peripheral wall of the outside container main body includes an extended foot portion that is extended to be located downwardly from a bottom of the inside container main body , wherein the thickness of the inside container main body is smaller than the thickness of the outside container main body .
An image forming apparatus, comprising: an image bearing member ; a developing device having a developer carrying member configured to carry developer, the developing device being configured to develop an electrostatic image formed on the image bearing member by supplying DC bias to the developer carrying member; a sensor configured to detect a toner bearing amount of toner image developed by the developing device ; and a control portion configured to set a development condition at a time of image formation based on a detection result of toner images formed for measurement purposes according to a plurality of different development conditions and on different target values set in advance according to development conditions to be set at the time of image formation, characterized in that the control portion is configured to set the developing condition at the time of image formation to a first potential difference between an image section potential of the electrostatic image formed on the image bearing member and the DC bias supplied to the developer carrying member with respect to a first pre-set target value of maximum image density and to a second potential difference between an image section potential of the electrostatic image formed on the image bearing member and the DC bias supplied to the developer carrying member which is larger than the first potential difference with respect to a second pre-set target value of maximum image density which is smaller than the first pre-set target value of maximum image density. an image bearing member ; a developing device having a developer carrying member configured to carry developer, the developing device being configured to develop an electrostatic image formed on the image bearing member by supplying DC bias to the developer carrying member; a sensor configured to detect a toner bearing amount of toner image developed by the developing device ; and a control portion configured to set a development condition at a time of image formation based on a detection result of toner images formed for measurement purposes according to a plurality of different development conditions and on different target values set in advance according to development conditions to be set at the time of image formation, characterized in that the control portion is configured to set the developing condition at the time of image formation to a first potential difference between an image section potential of the electrostatic image formed on the image bearing member and the DC bias supplied to the developer carrying member with respect to a first pre-set target value of maximum image density and to a second potential difference between an image section potential of the electrostatic image formed on the image bearing member and the DC bias supplied to the developer carrying member which is larger than the first potential difference with respect to a second pre-set target value of maximum image density which is smaller than the first pre-set target value of maximum image density.
A method, comprising: reading, by a first node (Node 1) of a plurality of nodes (Node 1, Node 2, Node 3), from a shared memory shared by the nodes (Node 1, Node 2, Node 3), a first data value; modifying, by the first node (Node 1), the first data value; storing, by the first node (Node 1), the modified first data value in a cache of the first node (Node 1); and initiating, by the first node (Node 1), a global synchronization command; and characterized by in response to the initiating, by the first node (Node 1), of the global synchronization command: indicating to the other nodes (Node 2, Node 3) of the plurality of nodes (Node 1, Node 2, Node 3), by the first node (Node 1), that the first node (Node 1) has completed a time step synchronization, wherein a time step is the interval between two consecutive global synchronization operations, and wherein the first node (Node 1) having completed a time step synchronization means that the first node is prepared to resume normal processing, and is waiting, if necessary, for each of the other nodes (Node 2, Node 3) to complete a time step synchronization. reading, by a first node (Node 1) of a plurality of nodes (Node 1, Node 2, Node 3), from a shared memory shared by the nodes (Node 1, Node 2, Node 3), a first data value; modifying, by the first node (Node 1), the first data value; storing, by the first node (Node 1), the modified first data value in a cache of the first node (Node 1); and initiating, by the first node (Node 1), a global synchronization command; and characterized by in response to the initiating, by the first node (Node 1), of the global synchronization command: indicating to the other nodes (Node 2, Node 3) of the plurality of nodes (Node 1, Node 2, Node 3), by the first node (Node 1), that the first node (Node 1) has completed a time step synchronization, wherein a time step is the interval between two consecutive global synchronization operations, and wherein the first node (Node 1) having completed a time step synchronization means that the first node is prepared to resume normal processing, and is waiting, if necessary, for each of the other nodes (Node 2, Node 3) to complete a time step synchronization.
A cleaner head for a vacuum cleaner, comprising: a housing ; a roller arranged to rotate with respect to the housing ; and a wheel assembly arranged to support the cleaner head on a surface such that the roller is held out of pressing engagement with the surface, wherein the wheel assembly comprises a first wheel which is arranged to drive the roller as the cleaner head is moved across the surface, wherein the wheel assembly further comprises a second wheel spaced from the first wheel in a direction which is parallel with the rotational axis of the roller , and characterised in that the second wheel is arranged to rotate with respect to the roller . a housing ; a roller arranged to rotate with respect to the housing ; and a wheel assembly arranged to support the cleaner head on a surface such that the roller is held out of pressing engagement with the surface, wherein the wheel assembly comprises a first wheel which is arranged to drive the roller as the cleaner head is moved across the surface, wherein the wheel assembly further comprises a second wheel spaced from the first wheel in a direction which is parallel with the rotational axis of the roller , and characterised in that the second wheel is arranged to rotate with respect to the roller .
A scanned image correction apparatus , comprising an image acquisition module , an arm swing detection module , and an image parameter correction module , wherein: the image acquisition module is disposed on a detector arm of a mobile scanning device , and configured to acquire a scanned image of an object under inspection and determine an image parameter of the scanned image during a scanning process of scanning the object under inspection by the mobile scanning device ; and the scanned image correction apparatus is characterized in that : the arm swing detection module is disposed at a monitor point on the detector arm , and configured to detect a displacement offset of the detector arm in a specified direction and build an arm swing model of the detector arm during the scanning process, wherein the arm swing model is used to fit a functional relationship between the displacement offset of the detector arm and time in the scanning process; and the image parameter correction module is configured to determine a change relationship between the image parameter of the scanned image and the displacement offset of the detector arm based on the arm swing model and the image parameter of the scanned image, and correct the scanned image based on the change relationship. the image acquisition module is disposed on a detector arm of a mobile scanning device , and configured to acquire a scanned image of an object under inspection and determine an image parameter of the scanned image during a scanning process of scanning the object under inspection by the mobile scanning device ; and the scanned image correction apparatus is characterized in that : the arm swing detection module is disposed at a monitor point on the detector arm , and configured to detect a displacement offset of the detector arm in a specified direction and build an arm swing model of the detector arm during the scanning process, wherein the arm swing model is used to fit a functional relationship between the displacement offset of the detector arm and time in the scanning process; and the image parameter correction module is configured to determine a change relationship between the image parameter of the scanned image and the displacement offset of the detector arm based on the arm swing model and the image parameter of the scanned image, and correct the scanned image based on the change relationship. the arm swing detection module is disposed at a monitor point on the detector arm , and configured to detect a displacement offset of the detector arm in a specified direction and build an arm swing model of the detector arm during the scanning process, wherein the arm swing model is used to fit a functional relationship between the displacement offset of the detector arm and time in the scanning process; and the image parameter correction module is configured to determine a change relationship between the image parameter of the scanned image and the displacement offset of the detector arm based on the arm swing model and the image parameter of the scanned image, and correct the scanned image based on the change relationship.
An array antenna device comprising: a waveguide having a plurality of first circular holes provided in a first surface, and a plurality of connection shaft insertion holes provided in a second surface facing the first surface; a plurality of first linear conductors respectively inserted into the plurality of first holes so that first ends are arranged inside the waveguide and second ends are arranged outside the waveguide; a plurality of disc-shaped conductor plates each having a second circular hole and disposed substantially parallel to the first surface outside the waveguide so that the plurality of first linear conductors are respectively inserted in to the second holes ; a plurality of second linear conductors having first ends respectively connected to second ends of the plurality of first linear conductors and arranged substantially parallel to the first surface; a plurality of antenna elements respectively connected to second ends of the plurality of second linear conductors; a plurality of connection shafts respectively inserted into the plurality of connection shaft insertion holes and having first ends respectively connected to first ends of the plurality of first linear conductors; a plurality of rotation devices for rotating each of the plurality of connection shafts; and a control device for individually controlling rotation of the plurality of rotation devices. a waveguide having a plurality of first circular holes provided in a first surface, and a plurality of connection shaft insertion holes provided in a second surface facing the first surface; a plurality of first linear conductors respectively inserted into the plurality of first holes so that first ends are arranged inside the waveguide and second ends are arranged outside the waveguide; a plurality of disc-shaped conductor plates each having a second circular hole and disposed substantially parallel to the first surface outside the waveguide so that the plurality of first linear conductors are respectively inserted in to the second holes ; a plurality of second linear conductors having first ends respectively connected to second ends of the plurality of first linear conductors and arranged substantially parallel to the first surface; a plurality of antenna elements respectively connected to second ends of the plurality of second linear conductors; a plurality of connection shafts respectively inserted into the plurality of connection shaft insertion holes and having first ends respectively connected to first ends of the plurality of first linear conductors; a plurality of rotation devices for rotating each of the plurality of connection shafts; and a control device for individually controlling rotation of the plurality of rotation devices.
A method of preparing a preserved multi-dose formulation, wherein the formulation is an immunogenic composition in the form of an oil-in-water emulsion, said method comprising or consisting essentially of the following steps: (a) providing at least two doses comprising an effective amount of at least one antigen; (b) providing between about 0.1 mg/mL and 5 mg/mL expressed as w/v of the formulation of a non-mercurial preservative which is an antimicrobial polyamide polymer having the following structure: wherein the weight average molecular weight (WAMW) is from about 1.0 kDa to about 15.0 kDa, as measured by size exclusion chromatography; (c) combining the antigen and the non-mercurial preservative with an aqueous and/or oily component to form a preserved multi-dose liquid oil-in-water formulation; (d) optionally providing one or more excipients; (e) optionally providing a container for containing the liquid formulation; (f) optionally sterilizing and transferring the liquid formulation to the container; and (g) optionally freeze-drying, lyophilizing and/or vitrifying the liquid formulation; thereby producing the preserved multi-dose formulation; and wherein the formulation contains no mercurial preservative. (a) providing at least two doses comprising an effective amount of at least one antigen; (b) providing between about 0.1 mg/mL and 5 mg/mL expressed as w/v of the formulation of a non-mercurial preservative which is an antimicrobial polyamide polymer having the following structure: wherein the weight average molecular weight (WAMW) is from about 1.0 kDa to about 15.0 kDa, as measured by size exclusion chromatography; (c) combining the antigen and the non-mercurial preservative with an aqueous and/or oily component to form a preserved multi-dose liquid oil-in-water formulation; (d) optionally providing one or more excipients; (e) optionally providing a container for containing the liquid formulation; (f) optionally sterilizing and transferring the liquid formulation to the container; and (g) optionally freeze-drying, lyophilizing and/or vitrifying the liquid formulation;
A compound selected from Compound (III), Compound (XXVIII), Compound (XXIV), Compound (XXX), Compound (XXXI), Compound (XXXII), Compound (XXXIII), Compound (XXXIV), Compound (XXXV), Compound (XXXVI), Compound (XXXVII), Compound (XXXVIII), Compound (XXXIX), Compound (XXXXIV), Compound (XXXXV), Compound (XXXXVI), and Compound (XXXXVII), or a pharmaceutically acceptable salt of any of the foregoing, for use in a method of inhibiting ferroptosis in a patient:
A method of manufacturing a pouch-shaped battery cell, the method comprising: (a) receiving an electrode assembly in a preliminary battery case and sealing other outer peripheries of the preliminary battery case excluding a first side outer periphery of the preliminary battery case , the first side outer periphery being configured to discharge gas therethrough; (b) attaching a protective film (120, 220, ..., 520) to at least one corner portion of an electrode assembly receiving portion ; wherein the protective film has an adhesive layer comprising an adhesive material and a film layer comprising nylon or a PET-based compound; (c) performing an activation process and a degassing process; (d) sealing the first side outer periphery of the electrode assembly receiving portion ; and (e) removing the protective film (120, 220, ..., 520), wherein an inner surface of the protective film (120, 220, ..., 520) is attached to an outer surface of the corner portion of the electrode assembly receiving portion in tight contact therewith without being crumpled in order to support a shape of the corner portion of the electrode assembly receiving portion . (a) receiving an electrode assembly in a preliminary battery case and sealing other outer peripheries of the preliminary battery case excluding a first side outer periphery of the preliminary battery case , the first side outer periphery being configured to discharge gas therethrough; (b) attaching a protective film (120, 220, ..., 520) to at least one corner portion of an electrode assembly receiving portion ; wherein the protective film has an adhesive layer comprising an adhesive material and a film layer comprising nylon or a PET-based compound; (c) performing an activation process and a degassing process; (d) sealing the first side outer periphery of the electrode assembly receiving portion ; and (e) removing the protective film (120, 220, ..., 520),
A method for managing an air conditioner , the method comprising: determining a power consumption pattern of the air conditioner while controlling the air conditioner , based on at least one power consumption factor; calculating (S210) a threshold value of power consumption according to an operating time of the air conditioner based on distribution information of the determined power consumption pattern; determining (S430) whether a current power consumption is within a threshold value range of the calculated threshold value of power consumption; and generating and transmitting (S230) a signal to a manager server if the current power consumption is not within the threshold value range. determining a power consumption pattern of the air conditioner while controlling the air conditioner , based on at least one power consumption factor; calculating (S210) a threshold value of power consumption according to an operating time of the air conditioner based on distribution information of the determined power consumption pattern; determining (S430) whether a current power consumption is within a threshold value range of the calculated threshold value of power consumption; and generating and transmitting (S230) a signal to a manager server if the current power consumption is not within the threshold value range.