mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: storing, by a Software-Defined Networking SDN controller in a configuration database, a virtual port group object for a virtual port group, the virtual port group identified by a virtual port group name, the virtual port group comprising one or more references to interface objects representing logical and physical interfaces in a network controlled in part by the SDN controller; receiving, by the SDN controller for the network, an indication of an interface action to be performed on an interface identified by an interface identifier, wherein the interface identifier comprises the virtual port group name of the virtual port group; in response to determining that the interface identifier comprises the virtual port group name, determining, by the SDN controller, a set of one or more of the logical and physical interfaces referenced by the virtual port group object that are affected by the interface action; and performing, by the SDN controller, the interface action with respect to the set of the one or more logical and physical interfaces, the SDN controller comprising at least one virtual port group support function, the method further comprising: mapping, translating or converting the interface action to interface specific actions to be issued to the affected logical and/or physical interfaces. storing, by a Software-Defined Networking SDN controller in a configuration database, a virtual port group object for a virtual port group, the virtual port group identified by a virtual port group name, the virtual port group comprising one or more references to interface objects representing logical and physical interfaces in a network controlled in part by the SDN controller; receiving, by the SDN controller for the network, an indication of an interface action to be performed on an interface identified by an interface identifier, wherein the interface identifier comprises the virtual port group name of the virtual port group; in response to determining that the interface identifier comprises the virtual port group name, determining, by the SDN controller, a set of one or more of the logical and physical interfaces referenced by the virtual port group object that are affected by the interface action; and performing, by the SDN controller, the interface action with respect to the set of the one or more logical and physical interfaces, the SDN controller comprising at least one virtual port group support function, the method further comprising: mapping, translating or converting the interface action to interface specific actions to be issued to the affected logical and/or physical interfaces.
A computer-implemented method for modifying at least one shader program of one or more shader programs to improve memory performance for data transmitted between the shader programs, the method comprising: identifying a first shader program and a second shader program for analysis based on graphics pipeline state; first determining, including determining whether there are data points output by the first shader program that are not input to the second shader program; second determining, including determining whether identification of data points output by the first shader program but not input to the second shader program cannot be performed at compile time and can be performed at runtime; modifying the first shader program based on the first determining and the second determining to generate a compiled first shader program; and outputting the compiled first shader program for execution in the graphics processing pipeline . identifying a first shader program and a second shader program for analysis based on graphics pipeline state; first determining, including determining whether there are data points output by the first shader program that are not input to the second shader program; second determining, including determining whether identification of data points output by the first shader program but not input to the second shader program cannot be performed at compile time and can be performed at runtime; modifying the first shader program based on the first determining and the second determining to generate a compiled first shader program; and outputting the compiled first shader program for execution in the graphics processing pipeline .
Filter module having a plurality of filter elements for separating overspray out of an air stream (L), wherein the filter module has a reusable and cleanable rack as supporting structure for accommodating components for absorbing overspray , and a plurality of components for absorbing overspray , which are inserted into the rack, characterized in that the components for absorbing overspray involve at least filter elements and liners in the rack that are designed for single use as disposable products, in that the filter elements form at least a first filter stage, and in that all those surfaces of the rack before the first filter stage which are impinged on by the air stream (L) are provided with the liners such that said surfaces of the rack are protected from overspray. wherein the filter module has a reusable and cleanable rack as supporting structure for accommodating components for absorbing overspray , and a plurality of components for absorbing overspray , which are inserted into the rack, characterized in that the components for absorbing overspray involve at least filter elements and liners in the rack that are designed for single use as disposable products, in that the filter elements form at least a first filter stage, and in that all those surfaces of the rack before the first filter stage which are impinged on by the air stream (L) are provided with the liners such that said surfaces of the rack are protected from overspray.
An endoscope reprocessor comprising: a housing portion that houses a medicinal solution bottle such that a sealing portion is located on a top surface; a first guide portion that guides the housing portion such that the housing portion is capable of advancing and retreating between a first point (Q1) and a second point (Q2); a movable portion that moves in cooperation with advancing of the housing portion ; and an unsealing portion provided in the movable portion and arranged at a position higher than the sealing portion of the medicinal solution bottle housed in the housing portion at the first point (Q1), the unsealing portion having a shape protruding towards the top surface at a predetermined length and descending as the movable portion advances to the second point (Q2). a housing portion that houses a medicinal solution bottle such that a sealing portion is located on a top surface; a first guide portion that guides the housing portion such that the housing portion is capable of advancing and retreating between a first point (Q1) and a second point (Q2); a movable portion that moves in cooperation with advancing of the housing portion ; and an unsealing portion provided in the movable portion and arranged at a position higher than the sealing portion of the medicinal solution bottle housed in the housing portion at the first point (Q1), the unsealing portion having a shape protruding towards the top surface at a predetermined length and descending as the movable portion advances to the second point (Q2).
A method for measuring Radio Resource Management, RRM, comprising: sending (S110), by a network device, measurement configuration information to a terminal device, characterized in that the measurement configuration information comprises measurement mode information or report mode information, the measurement mode information is configured to indicate a target measurement mode in which the terminal device performs a RRM measurement based on at least one of a plurality of synchronization signal blocks transmitted in a target broadband component carrier, and the report mode information is configured to indicate a target report mode in which the terminal device reports a measurement result obtained by performing the RRM measurement based on the at least one of the plurality of synchronization signal blocks; wherein the target report mode is that all measurement results obtained by performing the RRM measurement based on at least one of the plurality of synchronization signal blocks are reported; or, wherein the target report mode is that one of all measurement results obtained by performing the RRM measurement based on at least one of the plurality of synchronization signal blocks is reported. sending (S110), by a network device, measurement configuration information to a terminal device, characterized in that the measurement configuration information comprises measurement mode information or report mode information, the measurement mode information is configured to indicate a target measurement mode in which the terminal device performs a RRM measurement based on at least one of a plurality of synchronization signal blocks transmitted in a target broadband component carrier, and the report mode information is configured to indicate a target report mode in which the terminal device reports a measurement result obtained by performing the RRM measurement based on the at least one of the plurality of synchronization signal blocks; wherein the target report mode is that all measurement results obtained by performing the RRM measurement based on at least one of the plurality of synchronization signal blocks are reported; or, wherein the target report mode is that one of all measurement results obtained by performing the RRM measurement based on at least one of the plurality of synchronization signal blocks is reported.
A drive unit housing for an electric vehicle comprising: a first housing section forming a first compartment to house an electrical inverter comprising a capacitor and a power switching network; a second housing section forming a second compartment to house an electric motor ; an inlet port to receive a fluid; a shared wall separating the first compartment and the second compartment , the shared wall defining fluid pathways in fluid communication with the inlet port to circulate the fluid to cool the electrical inverter , the fluid pathways including a fluid channel and a fluid chamber , wherein the fluid travels through the fluid channel to cool the capacitor and then enters the fluid chamber to cool the power switching network; and an outlet port in fluid communication with the fluid pathways to discharge the fluid. a first housing section forming a first compartment to house an electrical inverter comprising a capacitor and a power switching network; a second housing section forming a second compartment to house an electric motor ; an inlet port to receive a fluid; a shared wall separating the first compartment and the second compartment , the shared wall defining fluid pathways in fluid communication with the inlet port to circulate the fluid to cool the electrical inverter , the fluid pathways including a fluid channel and a fluid chamber , wherein the fluid travels through the fluid channel to cool the capacitor and then enters the fluid chamber to cool the power switching network; and an outlet port in fluid communication with the fluid pathways to discharge the fluid.
A fluid handling system for a printer, the fluid handling system comprising: a first compartment ; a second compartment ; a fluid port , wherein the first compartment is fluidly coupled to the second compartment through the fluid port and wherein the first compartment , second compartment and fluid port are disposable within a printer, and wherein the fluid port includes a central axis ; and a barrier disposed within the fluid port , wherein the barrier separates the fluid port into a first channel and a second channel, wherein the barrier is movable within the fluid port to transition axially between a first position and a second position within the fluid port with respect to the central axis and wherein a lower end of the barrier is more proximate to the lower end of the fluid port when the barrier is in the first position than when the barrier is in the second position. a first compartment ; a second compartment ; a fluid port , wherein the first compartment is fluidly coupled to the second compartment through the fluid port and wherein the first compartment , second compartment and fluid port are disposable within a printer, and wherein the fluid port includes a central axis ; and a barrier disposed within the fluid port , wherein the barrier separates the fluid port into a first channel and a second channel, wherein the barrier is movable within the fluid port to transition axially between a first position and a second position within the fluid port with respect to the central axis and wherein a lower end of the barrier is more proximate to the lower end of the fluid port when the barrier is in the first position than when the barrier is in the second position.
A computer-implemented method for automated monitoring of monoclonal quality of cell growth, comprising: - acquiring (ST10) a sequence of images of a cell culture taken at different times during cell growth; characterized by - processing (ST20) each image in the sequence of images to identify cell locations of cells in the cell culture, wherein a single point location is identified for each cell in each image in the sequence of images , wherein the single point location of each cell is set to a center point of an identified graphical structure of each cell, and wherein the single point location is stored and processed based on coordinates within a coordinate system of the image in the sequence of images , resulting in a two-dimensional map of the single point locations, each of which representing one cell in the cell culture; - determining (ST40) for at least some of the images in the sequence of images the number of cells from the identified cell locations ; - determining (ST30) for at least one image in the sequence of images a spatial distribution of cells from the identified cell locations ; - evaluating compliance of the determined numbers of cells and the determined spatial distribution of cells with predetermined evaluation conditions being characteristic of monoclonal growth; and - assessing and outputting a monoclonal quality indicator based on the evaluated compliance with the predetermined evaluation conditions. - acquiring (ST10) a sequence of images of a cell culture taken at different times during cell growth; characterized by - processing (ST20) each image in the sequence of images to identify cell locations of cells in the cell culture, wherein a single point location is identified for each cell in each image in the sequence of images , wherein the single point location of each cell is set to a center point of an identified graphical structure of each cell, and wherein the single point location is stored and processed based on coordinates within a coordinate system of the image in the sequence of images , resulting in a two-dimensional map of the single point locations, each of which representing one cell in the cell culture; - determining (ST40) for at least some of the images in the sequence of images the number of cells from the identified cell locations ; - determining (ST30) for at least one image in the sequence of images a spatial distribution of cells from the identified cell locations ; - evaluating compliance of the determined numbers of cells and the determined spatial distribution of cells with predetermined evaluation conditions being characteristic of monoclonal growth; and - assessing and outputting a monoclonal quality indicator based on the evaluated compliance with the predetermined evaluation conditions.
A process for producing a finished acesulfame potassium composition, the process comprising the steps of: (a) forming a cyclic sulfur trioxide adduct; (b) hydrolyzing the cyclic sulfur trioxide adduct to form an acesulfame-H composition comprising acesulfame-H; (c) neutralizing the acesulfame-H in the acesulfame-H composition to form a crude acesulfame potassium composition comprising acesulfame potassium and less than 2800 wppm acetoacetamide-N-sulfonic acid, wherein the neutralizing step is conducted at a pH ranging from 8 to 11.0 and (d) treating the crude acesulfame potassium composition to form the finished acesulfame potassium composition comprising acesulfame potassium and less than 37 wppm acetoacetamide-N-sulfonic acid, wherein the treating step (d) comprises a concentrating operation and a separating operation, wherein the concentrating operation is conducted at a temperature below 90°C and the concentrating operation is conducted at or maintained at a residence time of less than 180 minutes. (a) forming a cyclic sulfur trioxide adduct; (b) hydrolyzing the cyclic sulfur trioxide adduct to form an acesulfame-H composition comprising acesulfame-H; (c) neutralizing the acesulfame-H in the acesulfame-H composition to form a crude acesulfame potassium composition comprising acesulfame potassium and less than 2800 wppm acetoacetamide-N-sulfonic acid, wherein the neutralizing step is conducted at a pH ranging from 8 to 11.0 and (d) treating the crude acesulfame potassium composition to form the finished acesulfame potassium composition comprising acesulfame potassium and less than 37 wppm acetoacetamide-N-sulfonic acid, wherein the treating step (d) comprises a concentrating operation and a separating operation, wherein the concentrating operation is conducted at a temperature below 90°C and the concentrating operation is conducted at or maintained at a residence time of less than 180 minutes.
A radiotherapy support system comprising a processing circuitry being configured to: obtain a medicament distribution which is a predicted spatial distribution of a medicament administered to a tumor; obtain a dose distribution which is a predicted spatial distribution of a dose of radiation applied to the tumor; produce a radiotherapy plan for the tumor using a combination of the medicament and the radiation based on the medicament distribution and the dose distribution, wherein the processing circuitry changes at least one of the medicament distribution or the dose distribution for an area where the medicament distribution overlaps the dose distribution, and produces the radiotherapy plan based on the changed distribution. obtain a medicament distribution which is a predicted spatial distribution of a medicament administered to a tumor; obtain a dose distribution which is a predicted spatial distribution of a dose of radiation applied to the tumor; produce a radiotherapy plan for the tumor using a combination of the medicament and the radiation based on the medicament distribution and the dose distribution, wherein the processing circuitry changes at least one of the medicament distribution or the dose distribution for an area where the medicament distribution overlaps the dose distribution, and produces the radiotherapy plan based on the changed distribution.
Filler element for windows, doors or facades, with a first cover layer and a second cover layer which are connected together by way of a thermally insulating core, wherein the core comprises at least two insulating layers which are separated from one another and which are held against one another by way of at least one resilient compensating element , characterised in that a depression for reception of a compensating element is formed at at least one insulating layer .
A composition for therapeutic use, the composition comprising a 2-(acylamino)imidazole compound of structure I: or a salt thereof; wherein: R 1 is haloaryl; X is a bond; Y is O; R 2 is a member independently selected from the group consisting of alkyl, alkenyl, alkynyl, and arylalkyl; or, alternatively, R 2 and R 7 join to form an additional heterocyclyl fused ring; R 4 is selected from the group consisting of: wherein A 1 , A 2 , A 3 , A 4 , and A 5 are each an independently selected CH or CR 6n , wherein one to three of A 1 , A 2 , A 3 , A 4 , and A 5 are optionally N; each of the R 6n members is independently selected from the group consisting of alkyl, hydroxy, alkoxy, aminoalkoxy, alkylamino, alkylaminoalkoxy, alkenyl, alkynyl, aryl, aryloxy, arylamino, cycloalkyl, cycloalkylalkyl, cycloalkoxy, cycloalkylalkoxy, cycloalkylamino, cycloalkylalkylamino, heterocyclyl, heterocyclyloxy, heterocyclylalkyloxy, heterocyclylamino, heterocyclylalkylamino, halo, haloalkyl, fluoroalkyloxy, arylalkyl, arylalkyloxy, arylalkylamino, heteroaryl, heteroaryloxy, heteroarylamino, heteroarylalkyl, heteroarylalkyloxy, and heteroarylalkylamino; or, alternatively, a pair of adjacent R 6n members join to form an additional fused ring that is selected from the group consisting of cycloalkyl, aryl, heterocyclyl, and heterocycloaryl; and R 7 is a member independently selected from the group consisting of hydrogen, halo, trifluoromethyl, and alkyl; or, alternatively, R 2 and R 7 join to form an additional heterocyclyl fused ring. R 1 is haloaryl; X is a bond; Y is O; R 2 is a member independently selected from the group consisting of alkyl, alkenyl, alkynyl, and arylalkyl; or, alternatively, R 2 and R 7 join to form an additional heterocyclyl fused ring; R 4 is selected from the group consisting of: wherein A 1 , A 2 , A 3 , A 4 , and A 5 are each an independently selected CH or CR 6n , wherein one to three of A 1 , A 2 , A 3 , A 4 , and A 5 are optionally N; each of the R 6n members is independently selected from the group consisting of alkyl, hydroxy, alkoxy, aminoalkoxy, alkylamino, alkylaminoalkoxy, alkenyl, alkynyl, aryl, aryloxy, arylamino, cycloalkyl, cycloalkylalkyl, cycloalkoxy, cycloalkylalkoxy, cycloalkylamino, cycloalkylalkylamino, heterocyclyl, heterocyclyloxy, heterocyclylalkyloxy, heterocyclylamino, heterocyclylalkylamino, halo, haloalkyl, fluoroalkyloxy, arylalkyl, arylalkyloxy, arylalkylamino, heteroaryl, heteroaryloxy, heteroarylamino, heteroarylalkyl, heteroarylalkyloxy, and heteroarylalkylamino; or, alternatively, a pair of adjacent R 6n members join to form an additional fused ring that is selected from the group consisting of cycloalkyl, aryl, heterocyclyl, and heterocycloaryl; and R 7 is a member independently selected from the group consisting of hydrogen, halo, trifluoromethyl, and alkyl; or, alternatively, R 2 and R 7 join to form an additional heterocyclyl fused ring.