mhurhangee/patent-ind-claim-en huggingface dataset:
Method for grinding a semiconductor wafer, wherein the semiconductor wafer is machined so as to remove material by way of a grinding tool containing grinding teeth with a height h with a coolant being fed into a contact region between the rotating semiconductor wafer and the grinding tool, wherein, at each point in time of the grinding, a first coolant flow is applied to a first region on one side of the semiconductor wafer by way of one or more nozzles , and wherein, at each point in time of the grinding, a second coolant flow is applied to a second region on said one side of the semiconductor wafer by way of one or more nozzles , characterized in that the first region is delimited by the lower right quadrant of the semiconductor wafer and the second region is delimited by the lower left quadrant and the quotient of the first coolant flow and the sum of the first and second coolant flow is not greater than 35% and not less than 25%. wherein the semiconductor wafer is machined so as to remove material by way of a grinding tool containing grinding teeth with a height h with a coolant being fed into a contact region between the rotating semiconductor wafer and the grinding tool, wherein, at each point in time of the grinding, a first coolant flow is applied to a first region on one side of the semiconductor wafer by way of one or more nozzles , and wherein, at each point in time of the grinding, a second coolant flow is applied to a second region on said one side of the semiconductor wafer by way of one or more nozzles , characterized in that the first region is delimited by the lower right quadrant of the semiconductor wafer and the second region is delimited by the lower left quadrant and the quotient of the first coolant flow and the sum of the first and second coolant flow is not greater than 35% and not less than 25%.
Underlay mat for floor coverings which contains: - the foamed polystyrene layer , - the PET film on the top side of the polystyrene layer , - the layer of adhesive applied onto the PET film and - the removable protective layer applied on the layer of adhesive . - the foamed polystyrene layer , - the PET film on the top side of the polystyrene layer , - the layer of adhesive applied onto the PET film and - the removable protective layer applied on the layer of adhesive .
A method for subscriber aware network monitoring comprising: determining subscriber and session data, at a network probe , storing the subscriber and session data in a database, wherein the subscriber has a non-unique IP address; retrieving identifying data from a packet, at a network address translation, NAT, traffic probe , wherein the NAT traffic probe is intended to observe IP traffic on the internet side of a Carrier Grade NAT, CGN device , the NAT traffic probe includes a NAT cache component ; determining the direction of the packet using the NAT cache component providing from the NAT traffic probe the identifying data as triplet of IP address, protocol and port to the NAT cache component when the packet is determined by the NAT cache component as bound for the Internet ; assigning using the CGN device the IP address and port from the determined triplet; determining, using the NAT cache component, whether a NAT-tuple corresponding to the triplet is found; and attaching a subscriber identity using the NAT tuple to the packet being processed if the NAT-tuple is found; or requesting the database , using the NAT traffic probe , to search for an entry if the NAT tuple is not found. determining subscriber and session data, at a network probe , storing the subscriber and session data in a database, wherein the subscriber has a non-unique IP address; retrieving identifying data from a packet, at a network address translation, NAT, traffic probe , wherein the NAT traffic probe is intended to observe IP traffic on the internet side of a Carrier Grade NAT, CGN device , the NAT traffic probe includes a NAT cache component ; determining the direction of the packet using the NAT cache component providing from the NAT traffic probe the identifying data as triplet of IP address, protocol and port to the NAT cache component when the packet is determined by the NAT cache component as bound for the Internet ; assigning using the CGN device the IP address and port from the determined triplet; determining, using the NAT cache component, whether a NAT-tuple corresponding to the triplet is found; and attaching a subscriber identity using the NAT tuple to the packet being processed if the NAT-tuple is found; or requesting the database , using the NAT traffic probe , to search for an entry if the NAT tuple is not found.
A device for separating off liquid and/or particulate contaminants from a gas flow , in which a flow path of the gas flow runs between at least one first electrode acting as a counter electrode and at least one second electrode (11, 111, 51, 53, 57, 135, 135', 135", 155) acting as an emitter electrode and having an electrode end oriented in the direction of the first electrode, and a direct-current voltage exceeding the breakdown voltage can be applied between the first electrode and the second electrode (11, 111, 51, 53, 57, 135, 135', 135", 155) in order to form a stable low-energy plasma , wherein the second electrode extends substantially along a first axis (X) in a first direction and the first electrode has at least one plateau region which is arranged opposite the second electrode and which extends at least regionally in a first plane running substantially perpendicular to the first direction (X), wherein the plateau region is connected to a base level by means of a spacer element extending against the first direction (X), characterized in that the plateau region is connected to the spacer element by means of at least one connecting element .
An earphone power amplifier, comprising a ground contact connectable to a ground wire of an earphone, a left sound channel power amplifying circuit connectable to a left sound channel of the earphone, and a right sound channel power amplifying circuit connectable to a right sound channel of the earphone, wherein the left sound channel power amplifying circuit comprises a first operational amplifier , the right sound channel power amplifying circuit comprises a second operational amplifier ; and the ground contact is connected to an end contact of the a first ferrite bead(FB1); wherein the ground contact is connectable to the ground wire or the earphone via the first ferrite bead and the left sound channel power amplifying circuit is fed with a first positive feedback signal and the right sound channel power amplifying circuit Z is fed with a second positive feedback signal; further comprising a filter , wherein an input end of the filter is connected to an input end of the first ferrite bead(FB1) via a fourth ferrite bead (FB4)and the input end of the first ferrite bead is not the end contact of the first ferrite bead (FB1); wherein the first positive feedback signal is fed from an output end of the filter to an in-phase input end of the first operational amplifier , and the second positive feedback signal is fed from the output end of the filter to an in-phase input end of the second operational amplifier ; wherein the filter is a low pass filter configured to perform attenuation on a signal having a high frequency, so as to avoid self-oscillation of the earphone power amplifier and wherein the input end of the filter is serially connected to an end of the fourth ferrite bead, wherein another end of the fourth ferrite bead is connected to the input end of the first ferrite bead.
Filter element, in particular for gas filtration, for example for an air filter, with an inner flow chamber enclosed by a filter medium body on the interior side of which a support frame is disposed, with at least one surrounding sealing ring lip projecting axially beyond a front face of the filter medium body for sealing against a housing component of a receiving filter housing, wherein a supporting ring is disposed at a radial distance from the sealing ring lip on the front face of the filter medium body and the supporting ring is supported in radial direction by the support frame , wherein the supporting ring is made in one piece with the support frame , characterized in that the sealing ring lip is disposed radially inside and the supporting ring radially outside on the front face of the filter medium body , that the supporting ring features a significantly smaller elasticity than the sealing ring lip , and that the supporting ring features an L-shaped cross section with an axial and a radial supporting leg , wherein the sealing ring lip rests on the radial supporting leg .
An anti-HIV antibody, wherein said antibody is PGT-134 having a variable heavy chain comprising the amino acid sequence of SEQ ID NO: 435 and a variable light chain comprising the amino acid sequence of SEQ ID NO: 440.
A method of producing water-soluble nanoparticles, comprising: synthesizing water-insoluble nanoparticles in an organic solvent; dissolving the water-insoluble nanoparticles in a first solvent and dissolving water-soluble multifunctional group ligands in a second solvent; mixing two solutions in the step to substitute surfaces of the water-insoluble nanoparticles with the multifunctional group ligands and dissolving the mixture in an aqueous solution to conduct a separation process; and cross-linking the substituted multifunctional group ligands with each other by intermolecular interaction, wherein the water-soluble nanoparticles, which are surrounded by a multifunctional group ligand (L I , L II , L III ) including an adhesive region (L I ), a cross-linking region (L II ), and a reactive region (L III ) which contains a functional group capable of adhering to an active component, and in which the cross-linking region (L II ) of the multifunctional group ligands is cross-linked with another cross-linking region of a neighboring multifunctional group ligands by intermolecular interaction. synthesizing water-insoluble nanoparticles in an organic solvent; dissolving the water-insoluble nanoparticles in a first solvent and dissolving water-soluble multifunctional group ligands in a second solvent; mixing two solutions in the step to substitute surfaces of the water-insoluble nanoparticles with the multifunctional group ligands and dissolving the mixture in an aqueous solution to conduct a separation process; and cross-linking the substituted multifunctional group ligands with each other by intermolecular interaction, wherein the water-soluble nanoparticles, which are surrounded by a multifunctional group ligand (L I , L II , L III ) including an adhesive region (L I ), a cross-linking region (L II ), and a reactive region (L III ) which contains a functional group capable of adhering to an active component, and in which the cross-linking region (L II ) of the multifunctional group ligands is cross-linked with another cross-linking region of a neighboring multifunctional group ligands by intermolecular interaction.
Process for preparing particles of polyphenylene sulfide polymer (PPS), comprising the following steps : - melt-blending a mixture (M) comprising : a) at least one PPS, and b) at least one polyester polymer (PE) comprising units from : - at least one dicarboxylic acid component, - at least one diol component, wherein at least 2 mol. % of the diol component is a poly(alkylene glycol) having a formula (I) : H(O-C m H 2m ) n -OH wherein m is an integer from 2 to 4 and n varies from 2 to 10, - processing the mixture (M) into pellets or strands, - cooling the pellets or strands at a temperature below 80° C, - contacting said pellets or strands with water, possibly heated to a temperature up to 95° C, - recovering the particles, - optionally drying the particles, and - optionally sieving the particles. - melt-blending a mixture (M) comprising : a) at least one PPS, and b) at least one polyester polymer (PE) comprising units from : - at least one dicarboxylic acid component, - at least one diol component, wherein at least 2 mol. % of the diol component is a poly(alkylene glycol) having a formula (I) : H(O-C m H 2m ) n -OH wherein m is an integer from 2 to 4 and n varies from 2 to 10, a) at least one PPS, and b) at least one polyester polymer (PE) comprising units from : - at least one dicarboxylic acid component, - at least one diol component, wherein at least 2 mol. % of the diol component is a poly(alkylene glycol) having a formula (I) : H(O-C m H 2m ) n -OH wherein m is an integer from 2 to 4 and n varies from 2 to 10, - at least one dicarboxylic acid component, - at least one diol component, wherein at least 2 mol. % of the diol component is a poly(alkylene glycol) having a formula (I) : H(O-C m H 2m ) n -OH wherein m is an integer from 2 to 4 and n varies from 2 to 10, - processing the mixture (M) into pellets or strands, - cooling the pellets or strands at a temperature below 80° C, - contacting said pellets or strands with water, possibly heated to a temperature up to 95° C, - recovering the particles, - optionally drying the particles, and - optionally sieving the particles.
A method for measuring volumetric changes of brain structures, the method comprising: i. initializing an intensity value of all voxels of a 3D voxel dataset representing the brain of a subject to an initial value preferentially equal to 0; ii. for all voxels that belongs to a segmented brain structure for which reference data of a longitudinal reference model exists, wherein the longitudinal reference model represents a volume change of said structure in function of time for a healthy population, automatically executing the following steps: - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; iii. displaying the voxels of the 3D voxel dataset in a longitudinal deviation map. i. initializing an intensity value of all voxels of a 3D voxel dataset representing the brain of a subject to an initial value preferentially equal to 0; ii. for all voxels that belongs to a segmented brain structure for which reference data of a longitudinal reference model exists, wherein the longitudinal reference model represents a volume change of said structure in function of time for a healthy population, automatically executing the following steps: - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; - calculating a volume change deviation D from the longitudinal reference model for the segmented brain structure of the subject, wherein, for said subject, a volume change is obtained by measuring the volume of said brain structure at different times and by automatically determining the change of said volume in function of time; - normalizing the deviation D to obtain a quantitative value Q of the volume change in order to compare said deviation D for voxel's belonging to different brain structures; - setting the intensity value of the voxels of the segmented brain structure to the previously obtained quantitative value Q; iii. displaying the voxels of the 3D voxel dataset in a longitudinal deviation map.
A network management system in which field wireless management stations having gateway functions and system management functions incorporated are redundantly connected together, wherein the field wireless management stations include at least switch modules in which switches (SWm) are provided, characterized in that the plurality of field wireless management stations are connected to each other through a synchronizing cable , a first synchronizing connector (CNa) and a second synchronizing connector (CNb), the first synchronizing connector (CNa) and the second synchronizing connector (CNb) being provided in the synchronizing cable , and the switches (SWm) are connected in series to a first group of signal wires (Pb) provided in the synchronizing cable for connecting the switch modules to each other, the switches being configured to turn on and off the first group of signal wires (Pb), wherein the synchronizing cable comprises a second group of signal wires (Pc1) associated with the first synchronizing connector (CNa), the second group of signal wires (Pc1) comprising a first short circuit connection, and a third group of signal wires (Pc2) associated with the second synchronizing connector (CNb), the third group of signal wires (Pc2) comprising a second short circuit connection.
Electrically operated food processor , in particular a cooking-mixing appliance, for preparing cooked food, which processor comprises a base appliance , a vessel which has an agitator and can be inserted into the base appliance , a heating device that is associated with the vessel , a temperature sensor , a transceiver device for communicating with the temperature sensor , and an evaluation device for evaluating the measurement data received from the temperature sensor , characterised in that the temperature sensor is a surface acoustic wave sensor and in that the temperature sensor is arranged in and/or on an element of the food processor that is spatially variable relative to the base appliance .
A negative electrode plate, comprising: a metal foil; a first active material layer directly disposed on a top surface of the metal foil; and a second active material layer directly disposed on a bottom surface of the metal foil, wherein a crystalline system of any active material in the first active material layer is different from a crystalline system of any active material in the second active material layer, and wherein the first active material layer comprises lithium titanate with spinel structure, and the second active material layer comprises titanium niobate with monoclinic crystal system. a metal foil; a first active material layer directly disposed on a top surface of the metal foil; and a second active material layer directly disposed on a bottom surface of the metal foil, wherein a crystalline system of any active material in the first active material layer is different from a crystalline system of any active material in the second active material layer, and wherein the first active material layer comprises lithium titanate with spinel structure, and the second active material layer comprises titanium niobate with monoclinic crystal system.
A method for the detection with Signal Amplification By Reversible Exchange (SABRE) magnetic resonance of an analyte at an unknown concentration C sub in a complex sample comprising a solvent, wherein the complex sample comprises a sample selected from the group consisting of a biological sample extracted from a human, a biological sample extracted from an animal, a fresh food product, a processed food product, a fresh feed material, and a processed feed material, the method comprising: (a) providing a series of mixtures M1, M2, ..., Mn, wherein each mixture comprises a predefined part of the complex sample comprising the analyte, a SABRE catalyst at a concentration C m , and a co-substrate at a concentration C co-sub , wherein C sub << C m < C co-sub , and wherein two or more of the mixtures are provided with a known concentration of added analyte for standard addition determination of the unknown concentration C sub of said analyte; and (b) applying p -H 2 ( para -H 2 ) to the mixtures inside an MR apparatus at a magnetic field flux density in the range of 1-50 T, and measuring in said MR apparatus with nuclear magnetic resonance the magnetic resonance response of the mixtures at a magnetic flux density in the range of 1-50 T, and determining from the magnetic resonance response of the series of mixtures the unknown concentration C sub of the analyte.
A system for generating suggestions for correcting an undefined token error comprising: at least one processor : a memory connected to the at least one processor ; and at least one program module that when loaded into the memory causes the at least one processor to: detect an undefined token error in program source code; generate suggestions to correct the detected undefined token error by using an include graph for a project , wherein a node in the include graph represents a file and relationships between files are represented by the way nodes of the include graph are arranged, to find all paths going from a node representing an external file in which the token is defined to a project node , wherein the external file is a file that is external to the project ; traversing each path that originates from the file that includes the undefined token, wherein each traversed path is segmented based on a folder in which a node resides; and for each path, display a file represented by a last node in the include graph before the project node , along with the file in which the token is defined, as a suggestion for correcting the error. a memory connected to the at least one processor ; and at least one program module that when loaded into the memory causes the at least one processor to: detect an undefined token error in program source code; generate suggestions to correct the detected undefined token error by using an include graph for a project , wherein a node in the include graph represents a file and relationships between files are represented by the way nodes of the include graph are arranged, to find all paths going from a node representing an external file in which the token is defined to a project node , wherein the external file is a file that is external to the project ; traversing each path that originates from the file that includes the undefined token, wherein each traversed path is segmented based on a folder in which a node resides; and for each path, display a file represented by a last node in the include graph before the project node , along with the file in which the token is defined, as a suggestion for correcting the error. detect an undefined token error in program source code; generate suggestions to correct the detected undefined token error by using an include graph for a project , wherein a node in the include graph represents a file and relationships between files are represented by the way nodes of the include graph are arranged, to find all paths going from a node representing an external file in which the token is defined to a project node , wherein the external file is a file that is external to the project ; traversing each path that originates from the file that includes the undefined token, wherein each traversed path is segmented based on a folder in which a node resides; and for each path, display a file represented by a last node in the include graph before the project node , along with the file in which the token is defined, as a suggestion for correcting the error.