mhurhangee/ep-ind-claims huggingface dataset:
A method for predicting the response of a tumor disease in a patient, caused by a solid epithelial tumor, to a therapeutic measure, wherein epithelial tumor cells from a body fluid of the patient are taken up in a cell culture medium in each case, wherein the tumor cells from a sample of the cell culture medium comprising the tumor cells are exposed to the therapeutic measure, while the tumor cells from a control sample of the cell culture medium comprising the tumor cells remain untreated, wherein the proportion of dying-off and dead epithelial tumor cells in the total number of epithelial tumor cells is then determined for the sample and the control sample, respectively, and is used to determine a dying-off rate of the epithelial tumor cells which is caused by the therapeutic measure as a measure of the response, wherein the cell culture medium does not comprise any added growth factor or added serum.
A LED lamp comprising at least one LED, which includes a metal base for dissipation of heat produced during operation, called thermal pad, and two terminals electrically connected to at least one track in an electrically conductive material in a support (112.1) of an electronic printed circuit (11; 20.1; 31; 310), wherein said thermal pad of said at least one LED is connected directly relative to a foil heat dissipator, hereinafter said heat sink (113; 35; 350), made of good thermal conductive material, so as to disperse the heat produced by said at least one LED also through said heat sink (113; 35; 350), which is arranged between said at least one LED and said support (112.1; 11.1; 32; 320) of said printed circuit, characterized in that: said lamp comprises at least one modular lighting component, fixed mechanically relative to a plate and which comprises: - a lighting unit, including: said support (112.1) of electronic printed circuit, said foil heat sink superimposed and fixed relative to said support (112.1) of electronic printed circuit, said at least one LED superimposed and fixed, by means of its thermal pad, relative to said heat sink and connected electrically, by means of the anode and cathode, to said electronic printed circuit, and - a modular enclosure, in which said lighting unit is encapsulated with seal and is electrically isolated, and in that said foil heat sink extends partly beyond said enclosure, in a manner free from all contact. said lamp comprises at least one modular lighting component, fixed mechanically relative to a plate and which comprises: - a lighting unit, including: said support (112.1) of electronic printed circuit, said foil heat sink superimposed and fixed relative to said support (112.1) of electronic printed circuit, said at least one LED superimposed and fixed, by means of its thermal pad, relative to said heat sink and connected electrically, by means of the anode and cathode, to said electronic printed circuit, and - a modular enclosure, in which said lighting unit is encapsulated with seal and is electrically isolated, and in that said foil heat sink extends partly beyond said enclosure, in a manner free from all contact. - a lighting unit, including: said support (112.1) of electronic printed circuit, said foil heat sink superimposed and fixed relative to said support (112.1) of electronic printed circuit, said at least one LED superimposed and fixed, by means of its thermal pad, relative to said heat sink and connected electrically, by means of the anode and cathode, to said electronic printed circuit, and said support (112.1) of electronic printed circuit, said foil heat sink superimposed and fixed relative to said support (112.1) of electronic printed circuit, said at least one LED superimposed and fixed, by means of its thermal pad, relative to said heat sink and connected electrically, by means of the anode and cathode, to said electronic printed circuit, and - a modular enclosure, in which said lighting unit is encapsulated with seal and is electrically isolated,
A method in a first node for adapting a multi-antenna transmission to a second node over an effective channel, the effective channel having multiple inputs and at least one output, the first node and the second node being comprised in a wireless communication system, the method comprising the steps of: obtaining at least one symbol stream, precoding the at least one symbol stream with a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure and wherein the precoding matrix is determined by the first node by selecting, from a codebook, a codebook element corresponding to the precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node. obtaining at least one symbol stream, precoding the at least one symbol stream with a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure and wherein the precoding matrix is determined by the first node by selecting, from a codebook, a codebook element corresponding to the precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node.
A method in a first access node (804, 1104) for communicating in a mobile network, wherein the first access node (804, 1104) is connected via a first connection to a user equipment (802, 1002) and controls a data transmission for the user equipment (802, 1002), wherein the data transmission is assisted by a second access node (808, 1208) which is connected to the user equipment (802, 1002) via a second connection, the method comprising: - receiving, from the user equipment (802, 1002), in a Radio Resource Control message a radio link failure warning indication indicative of a radio link failure of the second connection and a failure reason related to an expiration of a timer with the timer being started after a predetermined number of counter fulfillments of a condition and the timer being stopped after a predetermined number of counter fulfillments of another condition, and - adapting (782, 8, 898, 899, 10, 11) the mobile network based on the received failure notification indication. - receiving, from the user equipment (802, 1002), in a Radio Resource Control message a radio link failure warning indication indicative of a radio link failure of the second connection and a failure reason related to an expiration of a timer with the timer being started after a predetermined number of counter fulfillments of a condition and the timer being stopped after a predetermined number of counter fulfillments of another condition, and - adapting (782, 8, 898, 899, 10, 11) the mobile network based on the received failure notification indication.
An amorphous reduced graphene oxide (rGO) film for use in an implantable electronic device for neural interfacing, said film having a total thickness from 20 nm to 5 micrometer and comprising pores which have a diameter equal to or less than 10 nm.
A container for presenting goods, in particular refrigerated shelf, comprising at least one housing, further comprising at least two covers, which are adjacent in longitudinal extension of the housing, for closing an access opening in the housing, and comprising a guide device for the two covers, wherein - the two covers are actuated via a common drive device (8, 9), and wherein - the drive device (8, 9) has a shaft, which is embodied so as to be divided, comprising at least one shaft section per cover as well as a drive, characterized in that - the shaft sections are coupled to one another by simultaneously forming at least one shaft bearing (13, 14) in a cantilever, which is connected to the guide device and which engages between the covers. - the two covers are actuated via a common drive device (8, 9), and wherein - the drive device (8, 9) has a shaft, which is embodied so as to be divided, comprising at least one shaft section per cover as well as a drive, - the shaft sections are coupled to one another by simultaneously forming at least one shaft bearing (13, 14) in a cantilever, which is connected to the guide device and which engages between the covers.
A method for configuring an electronic element, in particular a ballast, for use in a lighting system, the method comprises the following steps: - Retrieving configuration information from a QR-code by means of a configuring device; - Powering, by the configuring device, the electronic element through wireless transmission of energy; - Sending the retrieved configuration information from the configuring device to the electronic element in the lighting system; and - Storing the configuration information into an information storage means of the electronic element, wherein in the sending step a bidirectional channel of a wireless interface based on a near field communication or an radio frequency identification communication between the configuring device and the electronic element is established, and wherein the configuration information is stored in the information storage means, when the electronic element is being powered by the configuring device, without an external power supply. - Retrieving configuration information from a QR-code by means of a configuring device; - Powering, by the configuring device, the electronic element through wireless transmission of energy; - Sending the retrieved configuration information from the configuring device to the electronic element in the lighting system; and - Storing the configuration information into an information storage means of the electronic element, wherein in the sending step a bidirectional channel of a wireless interface based on a near field communication or an radio frequency identification communication between the configuring device and the electronic element is established, and wherein the configuration information is stored in the information storage means, when the electronic element is being powered by the configuring device, without an external power supply.
Capacitor with variable air-gap, comprising a mobile comb (16, 18) and a fixed comb (12, 14), each of the combs comprising a body (20, 38), teeth (50, 52; 54, 56; 58, 60) having ends fixed to the body and free ends, the teeth of the mobile and fixed combs being interdigital, the air-gap of said capacitor being adjustable by the transverse movement of the teeth of the mobile comb, characterized in that the teeth (50, 52; 54, 56; 58, 60) of the mobile comb (16, 18) have geometric differences between one another, in order to attenuate the transverse resonance modes of the mobile comb.
A surface cooler comprising: a plate-like layer comprising a thermally conductive material; and a plurality of spaced-apart fins extending substantially perpendicular from an uppermost layer of the plate-like layer, the plurality of fins (64, 144) comprising a thermally conductive material and defining a plurality of air flow paths, wherein the plurality of spaced-apart fins is configured in a plurality of rows, each row configured protruding in a substantially perpendicular direction to the plate-like layer and oriented substantially parallel to a bypass air flow, characterised in that the plurality of rows of spaced-apart fins are configured with an increasing height of each row of spaced-apart fins in the direction of the bypass air flow such that the spaced-apart fins remain in the main bypass air flow as a boundary layer grows as the air flows past the surface cooler, so that the plurality of spaced-apart fins is configured to augment heat transfer of the surface cooler by increasing the turbulence levels of a fluid flowing through the airflow paths by promoting increased mixing with a resulting increase in the heat transfer coefficient of the surface cooler. a plate-like layer comprising a thermally conductive material; and a plurality of spaced-apart fins extending substantially perpendicular from an uppermost layer of the plate-like layer, the plurality of fins (64, 144) comprising a thermally conductive material and defining a plurality of air flow paths, wherein the plurality of spaced-apart fins is configured in a plurality of rows, each row configured protruding in a substantially perpendicular direction to the plate-like layer and oriented substantially parallel to a bypass air flow, characterised in that the plurality of rows of spaced-apart fins are configured with an increasing height of each row of spaced-apart fins in the direction of the bypass air flow such that the spaced-apart fins remain in the main bypass air flow as a boundary layer grows as the air flows past the surface cooler, so that the plurality of spaced-apart fins is configured to augment heat transfer of the surface cooler by increasing the turbulence levels of a fluid flowing through the airflow paths by promoting increased mixing with a resulting increase in the heat transfer coefficient of the surface cooler.
Arrangement of a vehicle floor mat intended to be partially integrated into a footrest, characterized in that the mat comprises a zone shaped to follow a structure forming a block having a substantially trapezoidal shape in a direction perpendicular to the bearing zone and a triangular profile.
A non-aqueous electrolyte electricity-storage element comprising: a positive electrode including a positive-electrode active material capable of inserting and releasing anions; a negative electrode including a negative-electrode active material capable of inserting and releasing cations; and a non-aqueous electrolyte, wherein the positive-electrode active material is porous carbon having communicating pores having a three-dimensional network structure, and wherein the pores of the three-dimensional network structure of the porous carbon are mesopores, and wherein the anions are inserted and released inside the mesopores of the three-dimensional network structure of the porous carbon, and wherein a changing rate of a cross-sectional thickness of a positive electrode film including the positive-electrode active material defined by Formula below is less than 45%, wherein the changing rate of cross-sectional thickness is determined as specified in the description, wherein the charge-discharge is performed up to 50 cycles, wherein charge is performed with cut-off voltage of 4.5 V and discharge is performed with cut-off voltage of 1.5 V, Changing rate of cross-sectional thickness % = Film thickness after charge-discharge − Film thickness before charge-discharge Film thickness before charge-discharge × 100 a positive electrode including a positive-electrode active material capable of inserting and releasing anions; a negative electrode including a negative-electrode active material capable of inserting and releasing cations; and a non-aqueous electrolyte, wherein the positive-electrode active material is porous carbon having communicating pores having a three-dimensional network structure, and wherein the pores of the three-dimensional network structure of the porous carbon are mesopores, and wherein the anions are inserted and released inside the mesopores of the three-dimensional network structure of the porous carbon, and wherein a changing rate of a cross-sectional thickness of a positive electrode film including the positive-electrode active material defined by Formula below is less than 45%, wherein the changing rate of cross-sectional thickness is determined as specified in the description, wherein the charge-discharge is performed up to 50 cycles, wherein charge is performed with cut-off voltage of 4.5 V and discharge is performed with cut-off voltage of 1.5 V, Changing rate of cross-sectional thickness % = Film thickness after charge-discharge − Film thickness before charge-discharge Film thickness before charge-discharge × 100
A memory device, comprising: an alternating stack of insulating layers and electrically conductive layers located over a substrate; an array of memory stack structures extending through the alternating stack (32, 46), wherein each of the memory stack structures comprises charge storage regions and a vertical semiconductor channel, and the electrically conductive layers comprise word lines for the memory stack structures; a word line decoder circuitry including switches for activating a respective word line for the memory stack structures, and located underneath the array of memory stack structures and above the substrate; a word line vertical interconnection region including multiple sets of at least one conductive interconnection structure, each set of at least one conductive interconnection structure electrically contacting a node of a respective device in the word line decoder circuitry; bit lines electrically connected to the vertical semiconductor channels through respective drain regions and extending over the array of memory stack structures; and upper-interconnect-level word line connectors extending parallel to the bit lines, wherein the upper-interconnect-level word line connectors electrically connect a respective set of at least one conductive interconnection structure to the electrically conductive layers, characterised in that the upper-interconnect-level word line connectors extend over a portion of the array of memory stack structures. an alternating stack of insulating layers and electrically conductive layers located over a substrate; an array of memory stack structures extending through the alternating stack (32, 46), wherein each of the memory stack structures comprises charge storage regions and a vertical semiconductor channel, and the electrically conductive layers comprise word lines for the memory stack structures; a word line decoder circuitry including switches for activating a respective word line for the memory stack structures, and located underneath the array of memory stack structures and above the substrate; a word line vertical interconnection region including multiple sets of at least one conductive interconnection structure, each set of at least one conductive interconnection structure electrically contacting a node of a respective device in the word line decoder circuitry; bit lines electrically connected to the vertical semiconductor channels through respective drain regions and extending over the array of memory stack structures; and upper-interconnect-level word line connectors extending parallel to the bit lines, wherein the upper-interconnect-level word line connectors electrically connect a respective set of at least one conductive interconnection structure to the electrically conductive layers, characterised in that the upper-interconnect-level word line connectors extend over a portion of the array of memory stack structures.
An evaporator, applied to a loop thermosyphon device, comprising: a housing, a multi-scale structure, a gas outlet nozzle, a liquid return nozzle, and a liquid working medium, wherein the liquid working medium is disposed at a bottom of the housing, the gas outlet nozzle is disposed at a top of the housing, the liquid return nozzle is disposed at a position except a zone corresponding to a heat source device, and the multi-scale structure is arranged on an inner wall of a heating surface, wherein the heating surface is a surface of the housing making contact with the heat source device, and the liquid working medium is configured to absorb heat and then evaporate into gas, wherein the heat is output to a condenser via the gas outlet nozzle, and the liquid working medium is condensed and returned to the bottom of the housing via the liquid return nozzle; characterised in that the multi-scale structure is a microchannel, wherein the microchannel is formed by machining or etching the inner wall of the heating surface; and in that the liquid return nozzle is disposed at a top of the heating surface. the liquid working medium is disposed at a bottom of the housing, the gas outlet nozzle is disposed at a top of the housing, the liquid return nozzle is disposed at a position except a zone corresponding to a heat source device, and the multi-scale structure is arranged on an inner wall of a heating surface, wherein the heating surface is a surface of the housing making contact with the heat source device, and the liquid working medium is configured to absorb heat and then evaporate into gas, wherein the heat is output to a condenser via the gas outlet nozzle, and the liquid working medium is condensed and returned to the bottom of the housing via the liquid return nozzle; characterised in that the multi-scale structure is a microchannel, wherein the microchannel is formed by machining or etching the inner wall of the heating surface; and in that the liquid return nozzle is disposed at a top of the heating surface.
System for heating a reducing agent of a pollution-control device using selective catalytic reduction for a diesel engine vehicle, comprising at least one heat source, a tank of reducing agent, and at least one reducing-agent-conveying pipe connecting the said tank to a reducing-agent injector, the said at least one heat source being designed to heat the said reducing agent, characterized in that the heat source comprises a fuel return circuit comprising a fuel-conveying pipe allowing the recovery of the excess fuel or leaks from at least one injection circuit of the diesel engine, and in that the said reducing-agent-conveying pipe is arranged at least partially around the outside of the said fuel-conveying pipe, wrapped in a spiral.
Method for operating a filter apparatus for the filtration of liquids, in particular of water or drinking water, the filtering apparatus comprising a housing having an inlet for unfiltered liquid and a filtrate outlet for filtered liquid, the outlet being openable and closable by means of an outlet valve, a filter means arranged in the housing in the flow path of the liquid between the inlet and filtrate outlet, and a dirt discharge, particles being filtered out from the liquid by the filter means and being capable of being discharged from the housing via the dirt discharge openable and closable by means of a discharge valve, the discharge valve and the outlet valve are actuated in common, in order, by the opening of the discharge valve and the simultaneous at least partial closing of the outlet valve, to generate a pressure pulse in the filtered liquid for cleaning the filter means, characterized in that the common switching of the discharge valve and outlet valve (13, 12) takes place with the inlet being at least partially open, wherein air, in particular as small air bubbles, or gas is injected, regulated, into a filter-candle inner space of a filter candle, the circumferential wall of which is formed by the filter means and the candle inner space of which is connected to the filtrate outlet.