mhurhangee/ep-ind-claims huggingface dataset:
A method for synthesizing a material, the method comprising the following steps: 1) providing a chamber, 2) placing a substrate arranged to bear the material to be synthesized in the chamber, 3) providing a photon-generating device arranged to send pump photons into the chamber, 4) providing in the chamber, near the substrate, reagents to synthesize said material comprising a gas, and ionising at least part of said gas in order to form a plasma comprising ions close to the substrate, 5) providing means for steering Raman photons in the chamber, 6) sending, in the chamber on a surface of the substrate close to the reagents, pump photons at a frequency likely to transform a part of the substrate into a state from which Raman emission is possible, 7) the surface of the substrate close to the reagents emits a Raman photon, and 8) steering Raman photons emitted by the substrate toward the reagents close to the substrate to synthesize the material on the substrate from the reagents. 1) providing a chamber, 2) placing a substrate arranged to bear the material to be synthesized in the chamber, 3) providing a photon-generating device arranged to send pump photons into the chamber, 4) providing in the chamber, near the substrate, reagents to synthesize said material comprising a gas, and ionising at least part of said gas in order to form a plasma comprising ions close to the substrate, 5) providing means for steering Raman photons in the chamber, 6) sending, in the chamber on a surface of the substrate close to the reagents, pump photons at a frequency likely to transform a part of the substrate into a state from which Raman emission is possible, 7) the surface of the substrate close to the reagents emits a Raman photon, and 8) steering Raman photons emitted by the substrate toward the reagents close to the substrate to synthesize the material on the substrate from the reagents.
A medical blocking tool which is configured to be placed inside of a lumen of a body to block the lumen of the body, the medical blocking tool comprising: a core section; and a swelling section which is formed of a swelling material swelled by absorbing a liquid thereinto so that the volume thereof is increased and which is provided around the core section, wherein when the swelling section is swelled, the swelling section is configured to be fixed to the inside of the lumen of the body to block the lumen of the body, characterized by a fixation assisting means for assisting the fixation when the swelling section is inserted into the inside of the lumen of the body, said fixation assisting means including an extension portion which is disposed, relative to the insertion direction, on the side of the rear end of the swelling section, and extends from the core section in a direction opposite to said insertion direction, and a plurality of lines of installation wires, each of which is installed at both ends of the extension portion. a core section; and a swelling section which is formed of a swelling material swelled by absorbing a liquid thereinto so that the volume thereof is increased and which is provided around the core section, wherein when the swelling section is swelled, the swelling section is configured to be fixed to the inside of the lumen of the body to block the lumen of the body,
Method of welding by depositing drops of molten metal at the end of a welding electrode into a weld puddle for short-circuit arc welding, comprising the steps of: moving the welding electrode towards the weld puddle, at least until the drop of molten metal at the end of a welding electrode short-circuits with the weld puddle; providing a current I 2 to the welding electrode; superimposing a periodic signal having a frequency and an amplitude onto the current, at least until after the short-circuit has cleared; and removing the periodic signal from the current after the short-circuit has cleared. moving the welding electrode towards the weld puddle, at least until the drop of molten metal at the end of a welding electrode short-circuits with the weld puddle; providing a current I 2 to the welding electrode; superimposing a periodic signal having a frequency and an amplitude onto the current, at least until after the short-circuit has cleared; and removing the periodic signal from the current after the short-circuit has cleared.
Superparamagnetic iron oxide nanoparticles with ultra-thin polymer layers, wherein nanoparticles consist of: a. superparamagnetic iron oxides cores co-precipitated with a polycation, b. hydrophilic layer made of at least one ultrathin layer of a polyelectrolyte. a. superparamagnetic iron oxides cores co-precipitated with a polycation, b. hydrophilic layer made of at least one ultrathin layer of a polyelectrolyte.
Pick-up device comprising: - a printhead module frame, wherein printhead module frames are holders for the stationary arrangement of different printhead modules, - two spaced-apart longitudinal struts of a holder frame, - in each case one guide rail arranged on the respective longitudinal strut, the guide rails being aligned parallel to one another characterized in that - the printhead module frame is connected by its ends facing the guide rails in each case to a carriage which, together with the respective guide rail, forms a linear guide - the pick-up device has in each case a locking rail which is arranged at the respective longitudinal strut, runs parallel to the respective guide rail and is configured for releasable locking of a locking element arranged at one of the carriages, and - wherein the pick-up device allows one or more printhead module frames to be displaced along the guide rails arranged at the longitudinal struts into any position on the holder frame and to be fixed in the set position. - a printhead module frame, wherein printhead module frames are holders for the stationary arrangement of different printhead modules, - two spaced-apart longitudinal struts of a holder frame, - in each case one guide rail arranged on the respective longitudinal strut, the guide rails being aligned parallel to one another characterized in that - the printhead module frame is connected by its ends facing the guide rails in each case to a carriage which, together with the respective guide rail, forms a linear guide - the pick-up device has in each case a locking rail which is arranged at the respective longitudinal strut, runs parallel to the respective guide rail and is configured for releasable locking of a locking element arranged at one of the carriages, and - wherein the pick-up device allows one or more printhead module frames to be displaced along the guide rails arranged at the longitudinal struts into any position on the holder frame and to be fixed in the set position.
A device comprising: a printed circuit board with a magnetic core coupled to the PCB; a high voltage coil comprising first traces disposed on the PCB; a low voltage coil comprising second traces disposed on the PCB; and a conductive shield, characterized in that the conductive shield comprises a three-dimensional enclosure around the high voltage coil, wherein the three-dimensional enclosure comprises third traces, wherein the conductive shield confines an electric field generated by the device to the PCB; and the magnetic core and one or more sides of the conductive shield are separated by an air gap. a printed circuit board with a magnetic core coupled to the PCB; a high voltage coil comprising first traces disposed on the PCB; a low voltage coil comprising second traces disposed on the PCB; and a conductive shield, characterized in that the conductive shield comprises a three-dimensional enclosure around the high voltage coil, wherein the three-dimensional enclosure comprises third traces, wherein the conductive shield confines an electric field generated by the device to the PCB; and the magnetic core and one or more sides of the conductive shield are separated by an air gap.
A control structure for a molding system, comprising: a controller (106, 934); and a valve actuator for positioning a valve member of a valve for regulating flow of molding material in the molding system, wherein the controller (106, 934) is configured to monitor an operating parameter of the valve actuator for indirectly appreciating an indication of a molding parameter of the molding system, and to control a controllable device of the molding system on the basis of the indication of the molding parameter, characterised in that the indication of the molding parameter of the molding system is a condition relating to the molding material, and the indication of the molding parameter indirectly appreciated by the controller includes one or more of a viscosity of the molding material and a temperature of the molding material. a controller (106, 934); and a valve actuator for positioning a valve member of a valve for regulating flow of molding material in the molding system, wherein the controller (106, 934) is configured to monitor an operating parameter of the valve actuator for indirectly appreciating an indication of a molding parameter of the molding system, and to control a controllable device of the molding system on the basis of the indication of the molding parameter, characterised in that the indication of the molding parameter of the molding system is a condition relating to the molding material, and the indication of the molding parameter indirectly appreciated by the controller includes one or more of a viscosity of the molding material and a temperature of the molding material.
A method comprising: receiving, through a transceiver, a first wireless signal comprising payload data and one or more indications instructing write operation for the payload data; and powering down the transceiver at least partly for a time period included in the one or more indications while storing the received payload data into an associated memory. receiving, through a transceiver, a first wireless signal comprising payload data and one or more indications instructing write operation for the payload data; and powering down the transceiver at least partly for a time period included in the one or more indications while storing the received payload data into an associated memory.
A delayed fluorescent compound of Formula: wherein each of R 1 to R 6 is independently selected from the group consisting of hydrogen, deuterium, halogen, cyano group, C1 to C20 alkyl group and C6 to C30 aryl group, and each of X and Y is independently selected from the group consisting of NR 7, CR 8 R 9, O, S and SiR 10 R 11, and wherein at least one of X and Y is NR 7, and each of R 7, R 8, R 9, R 10 and R 11 is independently selected from the group consisting of hydrogen, C1 to C20 alkyl group, Cl to C20 alkoxy group, C6 to C30 aryl group, C5 to C30 heteroaryl group and C1 to C20 amine group, characterized in that each of R 1 and R 2 is independently selected from a C6 to C30 aryl group and at least one of R 3 to R 6 is a cyano group. wherein each of R 1 to R 6 is independently selected from the group consisting of hydrogen, deuterium, halogen, cyano group, C1 to C20 alkyl group and C6 to C30 aryl group, and each of X and Y is independently selected from the group consisting of NR 7, CR 8 R 9, O, S and SiR 10 R 11, and wherein at least one of X and Y is NR 7, and each of R 7, R 8, R 9, R 10 and R 11 is independently selected from the group consisting of hydrogen, C1 to C20 alkyl group, Cl to C20 alkoxy group, C6 to C30 aryl group, C5 to C30 heteroaryl group and C1 to C20 amine group, characterized in that each of R 1 and R 2 is independently selected from a C6 to C30 aryl group and at least one of R 3 to R 6 is a cyano group.
A boron-containing compound represented by the following formula I or a pharmaceutically acceptable salt thereof: wherein the black circle represents a B atom, and the white circles represent B-H; - R 1 represents -(CH 2)n-X 1 -R 3 wherein: n represents an integer of 0 to 6; X 1 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 3 represents C 6 -C 20 alkyl, hydroxy C 6 -C 20 alkyl, amino C 6 -C 20 alkyl, azido C 6 -C 20 alkyl, hydroxycarbonyl C 6 -C 20 alkyl, substituted or unsubstituted phenoxy C 6 -C 20 alkyl, substituted or unsubstituted phenylthiourea C 6 -C 20 alkyl, wherein C 6 -C 20 alkyl may be either branched or linear or cyclic alkyl; and - R 2 represents -(CH 2)m-X 2 -R 4 wherein: m represents an integer from 0 to 8; X 2 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 4 represents a tumor recognition moiety selected from the group consisting of amino acids, amino acid amide, 5-aminolevulinic acid, kojic acid or salts thereof, hydroquinone or salts thereof, resveratrol or salts thereof, dimethylpyrazolopyrimidine acetamide-type translocator protein ligand, caffeic acid or salts thereof, monosaccharides or salts thereof, and nucleic acids or salts thereof. - R 1 represents -(CH 2)n-X 1 -R 3 wherein: n represents an integer of 0 to 6; X 1 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 3 represents C 6 -C 20 alkyl, hydroxy C 6 -C 20 alkyl, amino C 6 -C 20 alkyl, azido C 6 -C 20 alkyl, hydroxycarbonyl C 6 -C 20 alkyl, substituted or unsubstituted phenoxy C 6 -C 20 alkyl, substituted or unsubstituted phenylthiourea C 6 -C 20 alkyl, wherein C 6 -C 20 alkyl may be either branched or linear or cyclic alkyl; and n represents an integer of 0 to 6; X 1 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 3 represents C 6 -C 20 alkyl, hydroxy C 6 -C 20 alkyl, amino C 6 -C 20 alkyl, azido C 6 -C 20 alkyl, hydroxycarbonyl C 6 -C 20 alkyl, substituted or unsubstituted phenoxy C 6 -C 20 alkyl, substituted or unsubstituted phenylthiourea C 6 -C 20 alkyl, wherein C 6 -C 20 alkyl may be either branched or linear or cyclic alkyl; and - R 2 represents -(CH 2)m-X 2 -R 4 wherein: m represents an integer from 0 to 8; X 2 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 4 represents a tumor recognition moiety selected from the group consisting of amino acids, amino acid amide, 5-aminolevulinic acid, kojic acid or salts thereof, hydroquinone or salts thereof, resveratrol or salts thereof, dimethylpyrazolopyrimidine acetamide-type translocator protein ligand, caffeic acid or salts thereof, monosaccharides or salts thereof, and nucleic acids or salts thereof. m represents an integer from 0 to 8; X 2 represents O, S, NH, S-S, O-CO, NHCO or SCO, or is a single bond; R 4 represents a tumor recognition moiety selected from the group consisting of amino acids, amino acid amide, 5-aminolevulinic acid, kojic acid or salts thereof, hydroquinone or salts thereof, resveratrol or salts thereof, dimethylpyrazolopyrimidine acetamide-type translocator protein ligand, caffeic acid or salts thereof, monosaccharides or salts thereof, and nucleic acids or salts thereof.
A one step method for direct and simultaneous detection of a cancer cell or cancer cell element in a biological sample, namely tumour cell detection in sentinel nodes, metinel nodes, or other lymph nodes, the method comprising i) adding to said biological sample a panel of labelled agents, which bind to three or more different extracellular markers, wherein at least one of the agents is cancer specific and wherein the panel contains: - one or more agents binding to cancer-type specific extracellular markers, wherein the cancer-type specific marker is CA19-9, and - one or more agents binding to tissue-specific extracellular markers that are general epithelial extracellular markers, wherein the general epithelial marker is Ep-CAM; ii) subjecting the thus obtained biological sample to flow cytometry. i) adding to said biological sample a panel of labelled agents, which bind to three or more different extracellular markers, wherein at least one of the agents is cancer specific and wherein the panel contains: - one or more agents binding to cancer-type specific extracellular markers, wherein the cancer-type specific marker is CA19-9, and - one or more agents binding to tissue-specific extracellular markers that are general epithelial extracellular markers, wherein the general epithelial marker is Ep-CAM; - one or more agents binding to cancer-type specific extracellular markers, wherein the cancer-type specific marker is CA19-9, and - one or more agents binding to tissue-specific extracellular markers that are general epithelial extracellular markers, wherein the general epithelial marker is Ep-CAM; ii) subjecting the thus obtained biological sample to flow cytometry.
A head band for supporting a head-mounted device, comprising: first and second flat knit portions; a ribbed fabric extending between the first and second flat knit portions, wherein the ribbed fabric is configured to stretch in a first direction and has ribs extending in a second direction that is perpendicular to the first direction; and a pocket (60, 62) configured to receive a component (38, 54). first and second flat knit portions; a ribbed fabric extending between the first and second flat knit portions, wherein the ribbed fabric is configured to stretch in a first direction and has ribs extending in a second direction that is perpendicular to the first direction; and a pocket (60, 62) configured to receive a component (38, 54).
A method comprising: providing a magnetic field; providing a first plurality of cells which comprises one or more magnetic nanoparticles inside said cells; and levitating at least some of the first plurality of cells in the magnetic field for a time sufficient to permit at least some of the first plurality of cells to form a 3D cell assembly. providing a magnetic field; providing a first plurality of cells which comprises one or more magnetic nanoparticles inside said cells; and levitating at least some of the first plurality of cells in the magnetic field for a time sufficient to permit at least some of the first plurality of cells to form a 3D cell assembly.
A method of creating a configuration file for use in generating a page of a computer-generated user interface, the configuration file representing a data model and describing a plurality of UI elements of the UI and their appearance within the page of the UI, the configuration file comprising a UI Layer for specifying the plurality of UI elements which each comprise Screens and View Instructions which define the appearance and functionality of each of the UI elements to be configured and displayed and a Data Layer for specifying, for each of the plurality of UI elements, a respective remote location of data to be obtained to populate the UI element, each Screen comprising a model representation of all of the elements that are required for an accurate display of the UI on the page and the Data Layer comprising a plurality of data retrieving models; the method comprising: Selecting a UI element from a plurality of icons of UI elements displayed on a graphical user interface; Positioning the selected UI element on a canvass that represents the page; Configuring the appearance of the selected UI element on the canvass; Updating a configuration file based on the position and configuration of the selected UI element on the canvass; Defining data to populate the selected UI element by specifying a remote communications address where the data is to be fetched from; Updating a data retrieving model of the plurality of data models in the Data Layer with the remote communications address where the data is to be retrieved from; and Linking together the data retrieving model and the selected UI element such that, in use, data obtained via the data retrieving model can be used to populate the selected UI element linked to that data retrieving model in the Data Layer when generating the UI. Selecting a UI element from a plurality of icons of UI elements displayed on a graphical user interface; Positioning the selected UI element on a canvass that represents the page; Configuring the appearance of the selected UI element on the canvass; Updating a configuration file based on the position and configuration of the selected UI element on the canvass; Defining data to populate the selected UI element by specifying a remote communications address where the data is to be fetched from; Updating a data retrieving model of the plurality of data models in the Data Layer with the remote communications address where the data is to be retrieved from; and Linking together the data retrieving model and the selected UI element such that, in use, data obtained via the data retrieving model can be used to populate the selected UI element linked to that data retrieving model in the Data Layer when generating the UI.
Pressure-limiting valve, in particular for arrangement in a return line of a common rail system of an internal combustion engine, having a valve housing which has a housing head and has a hollow cylindrical housing shell in which an axial inlet opening is situated in a valve foot of the valve housing and at least one outlet opening is situated so as to be axially spaced apart from the inlet opening, wherein, in the valve foot, the inlet opening is adjoined by an inner valve seat for a valve body, and wherein an axially movable valve piston is arranged between the valve body and a closing spring which generates a closing force counter to a pressure (p) acting on the inlet opening, wherein the valve body is formed integrally with the valve piston as a stepped piston which, in its first step on its side facing toward the inlet opening, has a first axial length (L 1) and has a first surface (A 1) which can be acted on in an axial direction with the pressure (p), and which, in its second step, has a second axial length (L 2) and has a second surface (A 2) which can be acted on in an axial direction (X-X) with the pressure (p) and which, together with the first surface (A 1), forms an overall pressure surface (A G), characterized in that, in a closed position, the valve body forms, over the first axial length (L 1) and by way of its outer surface, a first circumferentially running throttling gap with a cylindrical inner surface of the valve seat, wherein, in the second step, over the second axial length (L 2) and between the outer surface of the stepped piston and an inner surface of the hollow cylindrical housing shell, there is formed a second circumferentially running throttling gap with a second gap width (S w) which is smaller than the gap width (S d) of the first throttling gap.
A System-on-a-Chip SoC chip, comprising: a bus mechanism comprising at least one Memory Protection Unit MPU; an One Time Programable OTP memory configured to store bus access control information; and a mode configuring module configured to connect the at least one MPU to the OTP memory, the mode configuring module being configured to: read the bus access control information from the OTP memory when the SoC chip is in a boot mode; and configure the MPU using the bus access control information; wherein the mode configuring module is further configured to enable the MPU and switch the SoC chip to a user mode upon configuration of the MPU. a bus mechanism comprising at least one Memory Protection Unit MPU; an One Time Programable OTP memory configured to store bus access control information; and a mode configuring module configured to connect the at least one MPU to the OTP memory, the mode configuring module being configured to: read the bus access control information from the OTP memory when the SoC chip is in a boot mode; and configure the MPU using the bus access control information; read the bus access control information from the OTP memory when the SoC chip is in a boot mode; and configure the MPU using the bus access control information; wherein the mode configuring module is further configured to enable the MPU and switch the SoC chip to a user mode upon configuration of the MPU.