mhurhangee/ep-ind-claims huggingface dataset:
A production method of a structured ceramic tile, comprising, in succession, steps of: - carrying out forming of an unfired tile starting from a suitable mixture; - carrying out drying of the formed unfired tile; - carrying out firing of the dried tile; comprising, between the step of forming the tile and the step of firing the tile, steps of: - applying a covering on a surface of the tile so that at least a protection region of the surface is defined, covered by the covering and inaccessible from outside, and at least a working region of the surface is defined, accessible from outside; and thereafter - dispensing, on the surface of the tile, fragments of an abrasive material, so as to abrade the working region; and thereafter - removing the covering from the surface of the tile; characterised in that: the step of applying at least a covering on the surface of the tile consists of applying a layer of adhesive or wax on the surface of the tile so that the layer of adhesive or wax adheres to the surface and can subsequently be removed, to define the protection region and the working region. - carrying out forming of an unfired tile starting from a suitable mixture; - carrying out drying of the formed unfired tile; - carrying out firing of the dried tile; - applying a covering on a surface of the tile so that at least a protection region of the surface is defined, covered by the covering and inaccessible from outside, and at least a working region of the surface is defined, accessible from outside; and thereafter - dispensing, on the surface of the tile, fragments of an abrasive material, so as to abrade the working region; and thereafter - removing the covering from the surface of the tile; characterised in that: the step of applying at least a covering on the surface of the tile consists of applying a layer of adhesive or wax on the surface of the tile so that the layer of adhesive or wax adheres to the surface and can subsequently be removed, to define the protection region and the working region.
Articles for increasing lubrication of a joint comprising: resorbable, biocompatible particles having a glass transition temperature within a joint of less than about 37°C, wherein the average particle size is about 0.5 millimeters to about 5 millimeters and wherein a Young's Modulus of the particles is 10 megapascals to 500 megapascals, which particles are capable of increasing fluid movement within the joint compared to synovial fluid, viscosupplemental fluid, or combinations thereof.
Method for determining the location of a vehicle using a GPS receiver and a specifiable coordinate system, comprising the following method steps: - determining the GPS coordinates by means of the GPS receiver, - projecting the determined GPS coordinates onto the coordinate system, and - correcting the projected coordinates by means of dead reckoning, wherein the correction of the coordinates in the coordinate system takes place on the basis of the history, in consideration of previously determined or projected coordinates, wherein the path of the vehicle is smoothed or corrected according to the history in the case of a discontinuous path trend, and wherein the correction of the coordinates in the coordinate system takes places in consideration of the quality of the GPS reception in such a way that the scope of the correction and thus the associated outlay is made to be dependent on the number of received satellites. - determining the GPS coordinates by means of the GPS receiver, - projecting the determined GPS coordinates onto the coordinate system, and - correcting the projected coordinates by means of dead reckoning,
A pharmaceutical composition comprising: stable, amorphous solid dispersion particles, wherein the particles consist of a protein kinase inhibitor selected from the group consisting of sorafenib, sorafenib hydrate, sorafenib solvate, sorafenib salt, and combinations thereof, and at least one polymeric stabilizing and matrix-forming component, wherein the particles have a degree of amorphicity of 100%, and wherein the amount of the protein kinase inhibitor in said particles is from 10% by weight to 70% by weight. stable, amorphous solid dispersion particles, wherein the particles consist of a protein kinase inhibitor selected from the group consisting of sorafenib, sorafenib hydrate, sorafenib solvate, sorafenib salt, and combinations thereof, and at least one polymeric stabilizing and matrix-forming component, wherein the particles have a degree of amorphicity of 100%, and wherein the amount of the protein kinase inhibitor in said particles is from 10% by weight to 70% by weight.
A composition for use in protecting bicycle or motorbike chains from dirt comprising from 30 to 90% by weight of water; from 5 to 65% by weight of wax selected from microcrystalline wax, paraffin and mixtures thereof; and from 0.005 to 10% by weight of graphene.
A method of analyzing a behavior of a computing device, comprising: monitoring, in a processor of the computing device, activities of a plurality of software applications on the computing device to collect behavior information, characterized by generating a behavior vector information structure that includes a plurality of numerical values that characterize a collective behavior of two or more of the plurality of software applications based on the collected behavior information; applying the generated behavior vector information structure to a multi-application classifier model to generate analysis information, the multi-application classifier model including decision nodes that each test a condition relevant to evaluating the collective behavior of two or more of the plurality of software applications; and using the generated analysis information to evaluate the collective behavior of two or more of the plurality of software applications. monitoring, in a processor of the computing device, activities of a plurality of software applications on the computing device to collect behavior information, characterized by generating a behavior vector information structure that includes a plurality of numerical values that characterize a collective behavior of two or more of the plurality of software applications based on the collected behavior information; applying the generated behavior vector information structure to a multi-application classifier model to generate analysis information, the multi-application classifier model including decision nodes that each test a condition relevant to evaluating the collective behavior of two or more of the plurality of software applications; and using the generated analysis information to evaluate the collective behavior of two or more of the plurality of software applications.
An engineered polypeptide having transaminase activity comprising an amino acid sequence having at least 80% sequence identity to reference sequence of SEQ ID NO:2 and amino acid residue differences as compared to SEQ ID NO:2 of X155T/I/V/K/A/L and X42A/G.
A method for wireless communication at a transmitting device, comprising waking up periodically to: identify (415; 905; 1005; 1105) location coordinates associated with a physical location of the transmitting device from a global positioning system of the transmitting device; identify (420; 910; 1015; 1115) a time-frequency resource within a slot, the time-frequency resource corresponding to at least a portion of the location coordinates associated with the physical location of the transmitting device; generate (425; 915; 1020; 1120) a sequence based at least in part on the slot, and the time-frequency resource; encode (430; 920; 1025; 1125) a signal using the sequence; and transmit (435; 925; 1030; 1130) the signal using the identified time-frequency resource, wherein the identified time-frequency resource indicates the physical location of the transmitting device. identify (415; 905; 1005; 1105) location coordinates associated with a physical location of the transmitting device from a global positioning system of the transmitting device; identify (420; 910; 1015; 1115) a time-frequency resource within a slot, the time-frequency resource corresponding to at least a portion of the location coordinates associated with the physical location of the transmitting device; generate (425; 915; 1020; 1120) a sequence based at least in part on the slot, and the time-frequency resource; encode (430; 920; 1025; 1125) a signal using the sequence; and transmit (435; 925; 1030; 1130) the signal using the identified time-frequency resource, wherein the identified time-frequency resource indicates the physical location of the transmitting device.
An apparatus for estimating a property of a downhole fluid, the apparatus comprising: a carrier configured to be conveyed through a borehole penetrating the earth; a fluid extraction device disposed at the carrier and configured to extract a sample of the downhole fluid; a probe cell comprising a window (13a,b) and configured to receive the sample; a light source configured to illuminate the sample through the window (13a,b) with light photons; and a photodetector disposed at the carrier and configured to receive light photons through the window (13a,b) that have interacted with the downhole fluid and generate a signal indicative of an amount of the received light photons; wherein the signal is indicative of the property; characterized in that the photodetector comprises an optical cavity comprising a semiconductor having a difference between a valence energy band and a conduction energy band for electrons that is greater than the energy of each of the received light photons; in that the light source and the photodetector are configured to operate at least at 200°C; and in that the photodetector is configured to detect photons in the near-infrared range. a carrier configured to be conveyed through a borehole penetrating the earth; a fluid extraction device disposed at the carrier and configured to extract a sample of the downhole fluid; a probe cell comprising a window (13a,b) and configured to receive the sample; a light source configured to illuminate the sample through the window (13a,b) with light photons; and a photodetector disposed at the carrier and configured to receive light photons through the window (13a,b) that have interacted with the downhole fluid and generate a signal indicative of an amount of the received light photons; wherein the signal is indicative of the property; characterized in that the photodetector comprises an optical cavity comprising a semiconductor having a difference between a valence energy band and a conduction energy band for electrons that is greater than the energy of each of the received light photons; in that the light source and the photodetector are configured to operate at least at 200°C; and in that the photodetector is configured to detect photons in the near-infrared range.
A polypeptide that is at least 60% identical to SEQ ID NO: 1, or that is at least 80% identical to SEQ ID NO: 2, wherein the polypeptide has a binding affinity for EGF that is less than or equal to 10 -5 M.
A surface protection film comprising two or more layers of a first material alternating with one or more layers of a second material, wherein the first and second materials are different materials, wherein the first and second materials comprise first and second polymers, wherein the first and second materials have a first and second Shore hardness, and wherein the first Shore hardness is greater than the second Shore hardness by more than 5A.
An inverter comprising: an inverter device configured to output three-phase alternating currents to drive an AC motor; a current detection unit configured to detect current waveforms of two phases from among the three-phase output currents from the inverter device; an edge conversion unit configured to produce a respective edge signal from each current waveform detected by the current detection unit, the edge signal having a positive value at the moment when the value of the respective current waveform passes a first threshold from a lower to a higher value and a negative value at the moment when the value of the respective current waveform passes a second threshold from a higher to a lower value and otherwise zero; and an edge determination unit configured to determine a pattern of each series of edge signals from each current waveform by determining the presence or absence of edge signals within the series, wherein the edge determination unit is arranged to detect loss of at least one phase by comparing the patterns of the series of edge signals from each current waveform with each other to determine whether a phase-loss condition is met. an inverter device configured to output three-phase alternating currents to drive an AC motor; a current detection unit configured to detect current waveforms of two phases from among the three-phase output currents from the inverter device; an edge conversion unit configured to produce a respective edge signal from each current waveform detected by the current detection unit, the edge signal having a positive value at the moment when the value of the respective current waveform passes a first threshold from a lower to a higher value and a negative value at the moment when the value of the respective current waveform passes a second threshold from a higher to a lower value and otherwise zero; and an edge determination unit configured to determine a pattern of each series of edge signals from each current waveform by determining the presence or absence of edge signals within the series, wherein the edge determination unit is arranged to detect loss of at least one phase by comparing the patterns of the series of edge signals from each current waveform with each other to determine whether a phase-loss condition is met.
The alignment station for aligning a print object, in particular a coin, to be printed by means of a printing machine, wherein the alignment station comprises: - an object carrier mount configured so as to hold an object carrier with at least one print object received and/or held by the object carrier; - an optical detection system configured so as to detect in a contactless manner a relative position and/or alignment of the at least one print object in relation to the object carrier and/or to a reference; and characterized in that the alignment station comprises - a positioning system configured so as to manipulate the at least one print object such that the relative position and/or alignment of the print object in relation to the object carrier and/or to the reference corresponds to a predefined or definable position and/or alignment. - an object carrier mount configured so as to hold an object carrier with at least one print object received and/or held by the object carrier; - an optical detection system configured so as to detect in a contactless manner a relative position and/or alignment of the at least one print object in relation to the object carrier and/or to a reference; and characterized in that the alignment station comprises - a positioning system configured so as to manipulate the at least one print object such that the relative position and/or alignment of the print object in relation to the object carrier and/or to the reference corresponds to a predefined or definable position and/or alignment.
An optical fiber holding device comprising: a holder (a1, a2) including a base and a lid which are openable and closable, the holder (a1, a2) being configured to sandwich an optical fiber when the base and the lid are in a closed state and thereby holds the optical fiber, the holder comprising: an elastic body; a drive unit configured to generate driving power; and a micrometer, the micrometer being configured to generate a pressing force based on the driving power generated by the drive unit and press the lid by the pressing force via the elastic body, the lid and the base being configured to sandwich and hold the optical fiber based on the pressing force transmitted through the elastic body when the lid is pressed by the micrometer via the elastic body, characterized in that the drive unit is a motor that generates a rotating drive force as the driving power, and the micrometer linearly moves based on the rotating drive force and thereby generates a pressing force, and the micrometer is configured to stop the linear motion and maintain the pressing force in the case where the drive unit is stopped and the rotating drive force is not generated. a holder (a1, a2) including a base and a lid which are openable and closable, the holder (a1, a2) being configured to sandwich an optical fiber when the base and the lid are in a closed state and thereby holds the optical fiber, the holder comprising: an elastic body; a drive unit configured to generate driving power; and a micrometer, the micrometer being configured to generate a pressing force based on the driving power generated by the drive unit and press the lid by the pressing force via the elastic body, the lid and the base being configured to sandwich and hold the optical fiber based on the pressing force transmitted through the elastic body when the lid is pressed by the micrometer via the elastic body, characterized in that the drive unit is a motor that generates a rotating drive force as the driving power, and the micrometer linearly moves based on the rotating drive force and thereby generates a pressing force, and the micrometer is configured to stop the linear motion and maintain the pressing force in the case where the drive unit is stopped and the rotating drive force is not generated. an elastic body; a drive unit configured to generate driving power; and a micrometer, the micrometer being configured to generate a pressing force based on the driving power generated by the drive unit and press the lid by the pressing force via the elastic body, the lid and the base being configured to sandwich and hold the optical fiber based on the pressing force transmitted through the elastic body when the lid is pressed by the micrometer via the elastic body, characterized in that the drive unit is a motor that generates a rotating drive force as the driving power, and the micrometer linearly moves based on the rotating drive force and thereby generates a pressing force, and the micrometer is configured to stop the linear motion and maintain the pressing force in the case where the drive unit is stopped and the rotating drive force is not generated.
Valet parking system for automatically bringing a vehicle (10, 50, 60) to an allocated parking space inside a predefined parking area, comprising a central control unit and a parking space monitoring system having at least one parking space sensor arranged in a stationary manner, wherein the parking space monitoring system is designed to capture the occupancy status of the parking spaces in the parking area and to transmit the current occupancy status to the central control unit and/or to locate vehicles autonomously driving or waiting inside the predefined parking area and to transmit information relating to the current vehicle position to the central control unit, wherein the central control unit is designed to allocate a free parking space to a vehicle (10, 50, 60) and to transmit information to the vehicle (10, 50, 60), with the result that the vehicle (10, 50, 60) can be autonomously brought to the allocated parking space along a trajectory, wherein a free parking space is allocated to the vehicle depending on the geometrical dimensions, in particular the height, of the vehicle (10, 50, 60), characterized in that a free parking space is allocated to the vehicle in such a manner that concealment of the capture region of the parking space sensors of the parking space monitoring system by the parked vehicle (50, 60) is minimized. wherein the central control unit is designed to allocate a free parking space to a vehicle (10, 50, 60) and to transmit information to the vehicle (10, 50, 60), with the result that the vehicle (10, 50, 60) can be autonomously brought to the allocated parking space along a trajectory, wherein a free parking space is allocated to the vehicle depending on the geometrical dimensions, in particular the height, of the vehicle (10, 50, 60), characterized in that a free parking space is allocated to the vehicle in such a manner that concealment of the capture region of the parking space sensors of the parking space monitoring system by the parked vehicle (50, 60) is minimized.
A method of improving a superalloy component by at least one additive chosen from the group of Hf, La and Y, in which the at least one additive is introduced into a surface layer of the component, wherein the at least one additive is introduced into a surface layer of the component by - applying a slurry onto the surface, where the slurry comprises a solid content and an organic binder with the solid content including Hf in an amount between 0 and 2.5% by weight of the slurry and/or La in an amount between 0 and 0.1% by weight of the slurry and/or Y in an amount between 0 and 0.1% by weight of the slurry and comprises the base material of the superalloy component, where this base material forms the balance of the slurry; - subjecting the component with the slurry to a heat treatment to cure the slurry and form a cured slurry layer; - introducing the at least one additive into the surface layer by melting the solid content of the slurry into the surface layer by scanning the surface with a laser beam to locally melt the solid content of the slurry and the surface layer,; and wherein an oxidation and/or corrosion resistant coating is applied onto the surface of the superalloy component after the additive has been introduced into the surface layer of the component. - applying a slurry onto the surface, where the slurry comprises a solid content and an organic binder with the solid content including Hf in an amount between 0 and 2.5% by weight of the slurry and/or La in an amount between 0 and 0.1% by weight of the slurry and/or Y in an amount between 0 and 0.1% by weight of the slurry and comprises the base material of the superalloy component, where this base material forms the balance of the slurry; - subjecting the component with the slurry to a heat treatment to cure the slurry and form a cured slurry layer; - introducing the at least one additive into the surface layer by melting the solid content of the slurry into the surface layer by scanning the surface with a laser beam to locally melt the solid content of the slurry and the surface layer,;
A specifying system comprising a configuration information storage device that is configured to store information on a terminal in a network and a specifying device that is configured to specify a state of the terminal, wherein the configuration information storage device is configured to store connection information indicating a connection relation between terminals in the network, and the specifying device includes a state specifying unit that is configured to receive detection information from a security device that detects hacking into the network or an activity of a first terminal related to infection and is configured to specify a state of the first terminal from information of the first terminal and content of activity of the first terminal included in the detection information, and an infection specifying unit that is configured to specify, when the state specifying unit specifies that the first terminal is in the state of being infected with malware, a second terminal (50A, 50B), among terminals (50A, 50B, 50E) being connected to the infected first terminal, on a route to the infected first terminal as a terminal suspected of infection based on the connection information stored in the configuration information storage device, and that is configured to specify a third terminal that can be infected from the infected first terminal, with the infected first terminal specified by the state specifying unit as a starting point, as a candidate for an infected terminal likely to be infected in the future using the connection information.