mhurhangee/ep-ind-claims huggingface dataset:
A system containing: a) a mass spectrometer that acquires a data spectrum from a biological sample b) a processor for assay-based judging decisions containing programs for data collection and data spectra analysis that are integrated by a programming interface that controls the dialogue between the data collection program and the data analysis program so that the system can provide real time genotypes from samples tested wherein the data collection program controls the data acquisition by the mass spectrometer and determines if the data acquired by the mass spectrometer is of suitable quality for analysis by comparison to predefined spectrum criteria and the data analysis program makes a real time genotype determination based on the collected data and uses said genotype determination to determine if repeated rastering is needed and to control the operation of the mass spectrometer. a) a mass spectrometer that acquires a data spectrum from a biological sample b) a processor for assay-based judging decisions containing programs for data collection and data spectra analysis that are integrated by a programming interface that controls the dialogue between the data collection program and the data analysis program so that the system can provide real time genotypes from samples tested wherein the data collection program controls the data acquisition by the mass spectrometer and determines if the data acquired by the mass spectrometer is of suitable quality for analysis by comparison to predefined spectrum criteria and the data analysis program makes a real time genotype determination based on the collected data and uses said genotype determination to determine if repeated rastering is needed and to control the operation of the mass spectrometer.
An endoscopic bipolar forceps, comprising: a housing having a shaft that extends therefrom having a longitudinal axis defined therethrough, the shaft including a stationary cam pin at a distal end thereof and an elongated cam slot operably disposed adjacent and in proximal relation relative to the stationary cam pin; and an end effector assembly operatively connected to a distal end of the shaft and including a pair of first and second jaw members (110, 120) pivotably coupled to one another, at least one of the first and second jaw members movable relative to the other jaw member from an open position, wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position, wherein the first and second jaw members cooperate to grasp tissue therebetween; and the at least one movable jaw member having a drive pin operably coupled thereto and movable within the cam slot on the shaft from a proximal position that corresponds to the movable jaw member being in the clamping position, to a distal position that corresponds to the movable jaw member being in the open position, the movable jaw member having a second cam slot defined thereon and operably coupled to the stationary cam pin on the shaft, wherein the second cam slot on the at least one movable jaw member includes an arcuate configuration, and wherein the at least one movable jaw member is both translatable along the longitudinal axis of the shaft and rotatable about the stationary cam pin upon actuation of the drive pin. a housing having a shaft that extends therefrom having a longitudinal axis defined therethrough, the shaft including a stationary cam pin at a distal end thereof and an elongated cam slot operably disposed adjacent and in proximal relation relative to the stationary cam pin; and an end effector assembly operatively connected to a distal end of the shaft and including a pair of first and second jaw members (110, 120) pivotably coupled to one another, at least one of the first and second jaw members movable relative to the other jaw member from an open position, wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position, wherein the first and second jaw members cooperate to grasp tissue therebetween; and the at least one movable jaw member having a drive pin operably coupled thereto and movable within the cam slot on the shaft from a proximal position that corresponds to the movable jaw member being in the clamping position, to a distal position that corresponds to the movable jaw member being in the open position, the movable jaw member having a second cam slot defined thereon and operably coupled to the stationary cam pin on the shaft,
A method for forming a semiconductor structure, comprising: a. providing a donor substrate having a trench therein and having a plurality of semiconductor layers epitaxially grown on top of one another on the donor substrate in such a way that at least a first of the semiconductor layers is present in the trench, wherein the trench: (i) is opening toward a top of the donor substrate, (ii) is defined by a monocrystalline bottom and non-crystalline sidewalls, and (iii) has a width of from 10 nm to 10 μm; b. providing a carrier substrate comprising: (i) a semiconductor substrate at a bottom thereof, (ii) a first semiconductor device on the semiconductor substrate, and (iii) electrical contacts to the first semiconductor device, at a top of the carrier substrate; c. bonding the donor substrate to the carrier substrate with the top of the donor substrate and the top of the carrier substrate facing each other; d. removing at least part of said donor substrate in such a way as to expose a semiconductor layer grown on the monocrystalline bottom; e. removing at least part of the semiconductor layer grown on the monocrystalline bottom, thereby modifying the plurality of semiconductor layers; and f. optionally forming a second semiconductor device from the modified plurality of semiconductor layers, characterized in that the trench has a depth to width aspect ratio smaller than 1.42:1. a. providing a donor substrate having a trench therein and having a plurality of semiconductor layers epitaxially grown on top of one another on the donor substrate in such a way that at least a first of the semiconductor layers is present in the trench, wherein the trench: (i) is opening toward a top of the donor substrate, (ii) is defined by a monocrystalline bottom and non-crystalline sidewalls, and (iii) has a width of from 10 nm to 10 μm; (i) is opening toward a top of the donor substrate, (ii) is defined by a monocrystalline bottom and non-crystalline sidewalls, and (iii) has a width of from 10 nm to 10 μm; b. providing a carrier substrate comprising: (i) a semiconductor substrate at a bottom thereof, (ii) a first semiconductor device on the semiconductor substrate, and (iii) electrical contacts to the first semiconductor device, at a top of the carrier substrate; (i) a semiconductor substrate at a bottom thereof, (ii) a first semiconductor device on the semiconductor substrate, and (iii) electrical contacts to the first semiconductor device, at a top of the carrier substrate; c. bonding the donor substrate to the carrier substrate with the top of the donor substrate and the top of the carrier substrate facing each other; d. removing at least part of said donor substrate in such a way as to expose a semiconductor layer grown on the monocrystalline bottom; e. removing at least part of the semiconductor layer grown on the monocrystalline bottom, thereby modifying the plurality of semiconductor layers; and f. optionally forming a second semiconductor device from the modified plurality of semiconductor layers, characterized in that the trench has a depth to width aspect ratio smaller than 1.42:1.
Motor vehicle headlamp designed as a lighting device or comprising at least an illumination device, said one or at least one illumination device comprising a number of microprojection light modules, wherein a microprojection light module comprises *) at least one light source and *) at least one projection device which images the light emerging from the at least one light source into an area in front of the motor vehicle in the form of at least one light distribution, wherein the projection device: -) an entrance optic, which consists of a number of micro entrance optics, which are preferably arranged in an array, -) an exit optic, which consists of a number of micro exit optics, which are preferably arranged in an array, wherein exactly one micro-entry optic is assigned to each micro-exit optic, wherein the micro-entry optics are designed and/or the micro-entry optics and the micro-exit optics are arranged relative to one another in such a way that substantially all the light emerging from a micro-entry optic enters exactly only the associated micro-exit optic, and wherein the light preformed by the micro-entry optics is imaged by the micro-exit optics into an area in front of the motor vehicle as at least one light distribution (LV1 - LV5; GLV), characterized in that at least one diaphragm device is arranged between the entrance optics and the exit optics. *) at least one light source and *) at least one projection device which images the light emerging from the at least one light source into an area in front of the motor vehicle in the form of at least one light distribution, wherein -) an entrance optic, which consists of a number of micro entrance optics, which are preferably arranged in an array, -) an exit optic, which consists of a number of micro exit optics, which are preferably arranged in an array, wherein
A method for manufacturing an analysis device comprising Torpedo membrane fragments immobilized on the surface thereof, comprising the steps of: a. fragmenting isolated membranes from Torpedo electrocyte cells, b. incorporating the membrane fragments obtained in step a) into a solution with a pH between from 6.5 to 10, c. attaching said membrane fragments to the surface of the device. a. fragmenting isolated membranes from Torpedo electrocyte cells, b. incorporating the membrane fragments obtained in step a) into a solution with a pH between from 6.5 to 10, c. attaching said membrane fragments to the surface of the device.
A method, in a wireless access point, the method comprising: receiving a pre-authorization request from a provisioning server, the pre-authorization request comprising an identifier for a mobile terminal, a pre-provisioned security parameter corresponding to the mobile terminal and a SSID for an originating wireless local area network, WLAN, from which originating WLAN a handover of the mobile terminal to the wireless access point is to be performed; determining whether the wireless access point can detect the SSID of the originating WLAN; in response to determining that the wireless access point can detect the SSID of the originating WLAN, sending to the provisioning server a pre-authorization confirmation message indicating that the wireless access point will perform fast authentication for the mobile terminal; in response to determining that the wireless access point is unable to detect the SSID of the originating WLAN, sending to the provisioning server a pre-authorization deny message indicating that the wireless access point is unable to accept the mobile terminal; subsequent to sending the pre-authorization confirmation, receiving an access request from the mobile terminal; sending an authentication message in response to the access request; receiving, in response to the authentication message, an authentication credential; verifying the authentication credential using the pre-provisioned security parameter corresponding to the mobile terminal identifier; and granting network access to the mobile terminal, in response to verifying the authentication credential. receiving a pre-authorization request from a provisioning server, the pre-authorization request comprising an identifier for a mobile terminal, a pre-provisioned security parameter corresponding to the mobile terminal and a SSID for an originating wireless local area network, WLAN, from which originating WLAN a handover of the mobile terminal to the wireless access point is to be performed; determining whether the wireless access point can detect the SSID of the originating WLAN; in response to determining that the wireless access point can detect the SSID of the originating WLAN, sending to the provisioning server a pre-authorization confirmation message indicating that the wireless access point will perform fast authentication for the mobile terminal; in response to determining that the wireless access point is unable to detect the SSID of the originating WLAN, sending to the provisioning server a pre-authorization deny message indicating that the wireless access point is unable to accept the mobile terminal; subsequent to sending the pre-authorization confirmation, receiving an access request from the mobile terminal; sending an authentication message in response to the access request; receiving, in response to the authentication message, an authentication credential; verifying the authentication credential using the pre-provisioned security parameter corresponding to the mobile terminal identifier; and granting network access to the mobile terminal, in response to verifying the authentication credential.
A method for producing a monoclonal antibody with specificity toward an antigen of interest, from at least one isolated cell, said method comprising the following steps: fixing a cell population containing antibody-producing cells with a crosslinking reagent, wherein the crosslinking reagent is a reversible crosslinking reagent having the cell membrane permeability (a fixing step); treating the fixed cell population with a detergent to make pores on a cell membrane; reacting the cell population which has been treated with the detergent with a labelled antigen of interest (a staining step); and isolating at least one single cell which has been reacted with the labelled antigen of interest from the cell population that underwent the staining step, preparing a cDNA from mRNA separated from the at least one isolated cell (a cDNA preparing step), wherein the mRNA separation comprises a de-crosslinking treatment of the isolated cell; and preparing the antigen specific monoclonal antibody or fragment thereof from the cDNA obtained in the cDNA preparing step (a preparing step of the monoclonal antibody specific to an antigen of interest), wherein the step and the staining step can be carried out sequentially or in parallel, and characterized in that said mRNA is from said isolated at least one cell. fixing a cell population containing antibody-producing cells with a crosslinking reagent, wherein the crosslinking reagent is a reversible crosslinking reagent having the cell membrane permeability (a fixing step); treating the fixed cell population with a detergent to make pores on a cell membrane; reacting the cell population which has been treated with the detergent with a labelled antigen of interest (a staining step); and isolating at least one single cell which has been reacted with the labelled antigen of interest from the cell population that underwent the staining step, preparing a cDNA from mRNA separated from the at least one isolated cell (a cDNA preparing step), wherein the mRNA separation comprises a de-crosslinking treatment of the isolated cell; and preparing the antigen specific monoclonal antibody or fragment thereof from the cDNA obtained in the cDNA preparing step (a preparing step of the monoclonal antibody specific to an antigen of interest), wherein the step and the staining step can be carried out sequentially or in parallel, and characterized in that said mRNA is from said isolated at least one cell.
A jig set characterized by comprising: a liquid injecting jig comprising a jig configuration including a plurality of parts adapted to be in cooperative engagement so as to position a channel within the jig configuration, wherein the plurality of parts includes: a channel exposure preventing cam configured to prevent exposure of the channel thereby allowing the channel to be positioned within the jig configuration, a fitting portion that is adapted to be in cooperative engagement with the channel exposure preventing cam so as to position the channel within the jig configuration, a main body portion that includes the channel, wherein the main body portion is adapted to be in cooperative engagement with the channel exposure preventing cam and the fitting portion thereby allowing the channel to be positioned within the jig configuration; and wherein the jig configuration is adapted to fit via the fitting portion an opening of a microchip case through which the channel is adapted to be received so as to expose the channel from the jig configuration; and a microchip case including the opening. a liquid injecting jig comprising a jig configuration including a plurality of parts adapted to be in cooperative engagement so as to position a channel within the jig configuration, wherein the plurality of parts includes: a channel exposure preventing cam configured to prevent exposure of the channel thereby allowing the channel to be positioned within the jig configuration, a fitting portion that is adapted to be in cooperative engagement with the channel exposure preventing cam so as to position the channel within the jig configuration, a main body portion that includes the channel, wherein the main body portion is adapted to be in cooperative engagement with the channel exposure preventing cam and the fitting portion thereby allowing the channel to be positioned within the jig configuration; and a channel exposure preventing cam configured to prevent exposure of the channel thereby allowing the channel to be positioned within the jig configuration, a fitting portion that is adapted to be in cooperative engagement with the channel exposure preventing cam so as to position the channel within the jig configuration, a main body portion that includes the channel, wherein the main body portion is adapted to be in cooperative engagement with the channel exposure preventing cam and the fitting portion thereby allowing the channel to be positioned within the jig configuration; and wherein the jig configuration is adapted to fit via the fitting portion an opening of a microchip case through which the channel is adapted to be received so as to expose the channel from the jig configuration; and a microchip case including the opening.
A leading edge structure in particular for an air inlet of an aircraft nacelle, comprising a leading edge and an inner partition defining a longitudinal compartment inside said leading edge housing deicing and/or anti-icing means, said leading edge being formed from at least one multi-axial composite structure formed by a superposition of one-dimensional and/or two-dimensional plies and oriented forming a perform, characterized in that said plies are interconnected by reinforcing fibers (233, 236) passing therethrough at least in their thickness, and in that said multi-axial composite structure is superimposed on one heating element intended for the anti-icing and/or the deicing.
A method for wireless communications by a base station, BS, comprising: determining, for communications with a subset of a plurality of user equipments, UEs, a joint grant that schedules one or more bundled downlink transmissions from the BS and one or more bundled uplink transmissions from the subset of UEs; transmitting the joint grant to the subset of UEs in one subframe of a plurality of subframes within at least one radio frame; and communicating with the subset of UEs based at least in part on the joint grant. determining, for communications with a subset of a plurality of user equipments, UEs, a joint grant that schedules one or more bundled downlink transmissions from the BS and one or more bundled uplink transmissions from the subset of UEs; transmitting the joint grant to the subset of UEs in one subframe of a plurality of subframes within at least one radio frame; and communicating with the subset of UEs based at least in part on the joint grant.
A method for measuring the amount of the human Estrogen Receptor protein in a biological sample of formalin-fixed tissue, comprising detecting and quantifying the amount of an ER fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the amount of ER protein in said sample; wherein said ER fragment peptide is SEQ ID NO: 2; and wherein the amount is a relative amount or an absolute amount.
Method for transferring a thin layer of germanium onto a first silicon support (18, 24), comprising the following steps: - providing a structure including a layer at least one part of which is obtained from a bulk germanium substrate or obtained by epitaxial growth using the bulk germanium substrate as a seed and that is attached to a second silicon support (6, 10), the thickness of the layer being between 1 μm and 50 μm; - forming in the layer, by implanting at least one gaseous species, a weakened zone buried to a given depth delimiting in the structure the thin layer to be transferred; - bonding the layer attached to the second support (6, 10) to the first support (18, 24); - fracturing the layer in the weakened zone, including at least one heat treatment step. - providing a structure including a layer at least one part of which is obtained from a bulk germanium substrate or obtained by epitaxial growth using the bulk germanium substrate as a seed and that is attached to a second silicon support (6, 10), the thickness of the layer being between 1 μm and 50 μm; - forming in the layer, by implanting at least one gaseous species, a weakened zone buried to a given depth delimiting in the structure the thin layer to be transferred; - bonding the layer attached to the second support (6, 10) to the first support (18, 24); - fracturing the layer in the weakened zone, including at least one heat treatment step.
An insert (810;1010;1110;1210;1310) for a tubular handling tool, comprising: a gripping element (812;900;1012) having an elongated body and a plurality of contact features (820;906;1028); a base (818;1018;1118;1218;1318) formed from a hard material and having a slot (816;1016;1316); a filling element (814;1014;1114;1314) formed from an elastic material, and disposed in a bottom portion of the slot (816;1016;1316); wherein: the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations. a gripping element (812;900;1012) having an elongated body and a plurality of contact features (820;906;1028); a base (818;1018;1118;1218;1318) formed from a hard material and having a slot (816;1016;1316); a filling element (814;1014;1114;1314) formed from an elastic material, and disposed in a bottom portion of the slot (816;1016;1316); wherein: the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations. the gripping element (812;900;1012) is disposed in the slot (816;1016;1316); the filling element (814;1014;1114;1314) contacts the gripping element (812;900;1012) along the elongated body; and the base (818;1018;1118; 1218;1318) supports the gripping element (812;900;1012) in one or more locations.