mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for coating a container, for instance a plastic bottle, by means of a plasma treatment, the apparatus comprising: at least one high-frequency source, at least one outer electrode located outside the container to be treated, and at least one at least partially electrically conducting gas lance for the supply of process gas into the container, configured to apply a high frequency of the high frequency source to the at least one outer electrode or the at least one gas lance, characterized in that the at least one gas lance is configured at least in part or in whole as a hollow cathode having at least one internal hollow space, wherein the at least one hollow space of the hollow cathode is fluidically connected to the interior of the container to be treated and to the part of the gas lance that supplies the process gas by lateral and axial bores or recesses, and that a plasma can be generated in the interior of the hollow cathode in the at least one hollow space. at least one high-frequency source, at least one outer electrode located outside the container to be treated, and at least one at least partially electrically conducting gas lance for the supply of process gas into the container, configured to apply a high frequency of the high frequency source to the at least one outer electrode or the at least one gas lance, characterized in that the at least one gas lance is configured at least in part or in whole as a hollow cathode having at least one internal hollow space, wherein the at least one hollow space of the hollow cathode is fluidically connected to the interior of the container to be treated and to the part of the gas lance that supplies the process gas by lateral and axial bores or recesses, and that a plasma can be generated in the interior of the hollow cathode in the at least one hollow space.
A multi-gate transistor, comprising: a plurality of active semiconductor layers on a substrate, wherein said multi-gate transistor is configured to induce a two-dimensional electron gas at the interface of two of said active semiconductor layers (36, 38) during operation of said multi-gate transistor; a source and a drain (42, 44) in electrical contact with said 2DEG during operation of said multigate transistor; a first spacer layer on said plurality of active semiconductor layers; a first gate between said source and drain, said first gate in electrical contact with one or more of said plurality of active semiconductor layers; a second gate between said first gate and said drain and in an aperture of said first spacer layer, wherein said second gate is connected to said source; and a second spacer layer on the first spacer layer between said second gate and said plurality of active semiconductor layers, on side walls of said aperture, and over said first gate. a plurality of active semiconductor layers on a substrate, wherein said multi-gate transistor is configured to induce a two-dimensional electron gas at the interface of two of said active semiconductor layers (36, 38) during operation of said multi-gate transistor; a source and a drain (42, 44) in electrical contact with said 2DEG during operation of said multigate transistor; a first spacer layer on said plurality of active semiconductor layers; a first gate between said source and drain, said first gate in electrical contact with one or more of said plurality of active semiconductor layers; a second gate between said first gate and said drain and in an aperture of said first spacer layer, wherein said second gate is connected to said source; and a second spacer layer on the first spacer layer between said second gate and said plurality of active semiconductor layers, on side walls of said aperture, and over said first gate.
A trunnion bearing comprising: an inner ring having a first exterior surface and a first interior surface, the first exterior surface having a spherical contour; an outer ring having a second interior surface and a second exterior surface, the second interior surface having a spherical contour; the inner ring being disposed at least partially in the outer ring; a metallic liner comprising a copper-based alloy, the metallic liner being disposed between the first exterior surface of the inner ring and the second interior surface of the outer ring characterised in that at least one of the inner ring and the outer ring comprises a titanium based alloy; and in that the trunnion bearing further comprises at least one recess in the metallic liner, the at least one recess being configured as a second lubricant reservoir for dispensing a second lubricant between the metallic liner and the first exterior surface of the inner ring. an inner ring having a first exterior surface and a first interior surface, the first exterior surface having a spherical contour; an outer ring having a second interior surface and a second exterior surface, the second interior surface having a spherical contour; the inner ring being disposed at least partially in the outer ring; a metallic liner comprising a copper-based alloy, the metallic liner being disposed between the first exterior surface of the inner ring and the second interior surface of the outer ring characterised in that at least one of the inner ring and the outer ring comprises a titanium based alloy; and in that the trunnion bearing further comprises at least one recess in the metallic liner, the at least one recess being configured as a second lubricant reservoir for dispensing a second lubricant between the metallic liner and the first exterior surface of the inner ring.
A signal processing device comprising: a superimposed signal transmission unit configured to transmit an operation signal in accordance with a state of an operation element to a communication device (4, 200) external to the signal processing device, and to transmit a superimposed signal to the communication device (4, 200), wherein the superimposed signal is generated by superimposing a data signal indicating predetermined information on the operation signal transmitted to the communication device (4, 200); an information storage unit configured to store the predetermined information; characterized in further comprising: an information rewrite unit configured to overwrite the predetermined information stored in the information storage unit based on an external instruction input, wherein the information rewrite unit is configured to overwrite the predetermined information in the information storage unit while the superimposed signal transmission unit transmits the superimposed signal to the communication device (4, 200). a superimposed signal transmission unit configured to transmit an operation signal in accordance with a state of an operation element to a communication device (4, 200) external to the signal processing device, and to transmit a superimposed signal to the communication device (4, 200), wherein the superimposed signal is generated by superimposing a data signal indicating predetermined information on the operation signal transmitted to the communication device (4, 200); an information storage unit configured to store the predetermined information; characterized in further comprising: an information rewrite unit configured to overwrite the predetermined information stored in the information storage unit based on an external instruction input, wherein the information rewrite unit is configured to overwrite the predetermined information in the information storage unit while the superimposed signal transmission unit transmits the superimposed signal to the communication device (4, 200).
A communications device configured to transmit signals to and/or receive signals from an infrastructure equipment of a mobile communications network, the communications device comprising a receiver configured to receive signals transmitted by an infrastructure equipment of a mobile communications network, the signals being transmitted in accordance with a wireless access interface and including at least one positioning reference signal transmitted in each of a plurality of time units, at least one antenna configured to be connected to the receiver, a motion detector configured to determine a relative local position of the communications device, the motion detector being one of a plurality of different types of motion detector, each type having a relative accuracy, and a controller configured to generate a measurement data set during movement of the communications device along a three dimensional trajectory, the measurement data set comprising a plurality of measurement samples of at least a phase of the positioning reference signal according to a sampling rate, the sampling rate being adapted in accordance with the relative accuracy of the motion detector, and a relative local position of the communications device at which the phase of the positioning reference signal was determined, to estimate a relative angle of arrival of the received radio signals, which include the positioning reference signal, by interpreting the measurement data set as a synthetic antenna array, to determine an estimation of a location of the communications device using the estimate angle of arrival, wherein the controller is configured to adapt at the rate of sampling to generate the measurement data set in accordance with predetermined conditions including the type of the motion detector.
A method of processing cell-containing wells of a multi-well chip, the method comprising: a) dispensing a volume of cell suspension into the wells of the multi-well chip; T b) imaging the multi-well chip to acquire a plurality of images of the wells at multiple z-planes, each z-plane being defined by a z-distance along a z-axis perpendicular to the flat surface of the multi-well chip; and c) generating a map of the multi-well chip, based on the acquired plurality of images, that identifies empty wells and cell-containing wells of the multi-well chip wherein generating the map comprises combining the acquired plurality of images to produce a composite image with extended depth of focus that provides an in-focus image of all of the cells present in the wells characterized in that the method further comprises the step of: d) processing only the cells in the identified cell-containing wells of the multi-well chip. a) dispensing a volume of cell suspension into the wells of the multi-well chip; T b) imaging the multi-well chip to acquire a plurality of images of the wells at multiple z-planes, each z-plane being defined by a z-distance along a z-axis perpendicular to the flat surface of the multi-well chip; and c) generating a map of the multi-well chip, based on the acquired plurality of images, that identifies empty wells and cell-containing wells of the multi-well chip wherein generating the map comprises combining the acquired plurality of images to produce a composite image with extended depth of focus that provides an in-focus image of all of the cells present in the wells characterized in that the method further comprises the step of: d) processing only the cells in the identified cell-containing wells of the multi-well chip.
A flame retardant composition comprising: 20 to 80 weight percent of a polycarbonate composition; 1 to 20 weight percent of a laser activatable additive; the laser activatable additive being operative to plate the flame retardant composition upon being activated by a laser; and 1 to 20 weight percent of a phosphazene compound; where all weight percents are based on the total weight of the flame retardant composition. 20 to 80 weight percent of a polycarbonate composition; 1 to 20 weight percent of a laser activatable additive; the laser activatable additive being operative to plate the flame retardant composition upon being activated by a laser; and 1 to 20 weight percent of a phosphazene compound; where all weight percents are based on the total weight of the flame retardant composition.
A storage device having a shell body; a container; and a container cap; wherein the shell body is formed with a dispense outlet at one end of the shell body, a force-bearing structure at the other end, and a closure member for closing the dispense outlet; wherein one end of the closure member is connected attached or integrally formed to the shell body by a flexible membrane; wherein the force bearing structure comprises an internally installed pushing structure pointing towards the closure member, the force bearing structure being made of a material softer than that of the shell body, such that deformation of the force bearing structure pushed towards the closure member causes the pushing structure to press against the closure member to open it; wherein the container includes an opening portion and an external thread; wherein the peripheral side of the shell body is a hollow container having flanges for insertingly attaching with the edges of the opening portion of an associated container, for engaging the edges of an opening of an associated container, to limit the depth of insertion of the shell body into the associated container; wherein the container cap includes an inner thread engageable with the external thread of the container; wherein the device is such that a relative stable relationship occurs when the closure member is closed relative to the storage device, the flexible membrane being bent to a prestressed status so that the closure member remains in a stable open status after it is pressed open; and wherein installing the container cap on the container, when the external thread of the container is tightening screwed by the inner thread thereof, exerts a tightening force on the force bearing structure so that the pushing structure is pushed towards the closure member, thereby touchingly pressing the closure member to open the closure member.
Method for classifying atrial fibrillation by analysing ECG data via a control system, wherein in a decomposition step the control system decomposes the ECG data by a frequency decomposition thereby generating frequency data, in particular a frequency spectrum, comprising a frequency dimension (f) and an amplitude dimension (a), characterized in that in an analysis step the control system identifies in the frequency data a dominant window having a width in the frequency dimension (f) and meeting an amplitude criterion, that the dominant window includes at least two frequencies or frequency bins in the frequency dimension (f), that the amplitude criterion is based on a sum of amplitudes inside the dominant window, that the control system identifies the dominant window by searching on at least a section, in particular a pre-defined section, of the frequency dimension (f) for a window fulfilling the amplitude criterion and that based on the dominant window the control system determines the classification of atrial fibrillation in the ECG data. wherein in a decomposition step the control system decomposes the ECG data by a frequency decomposition thereby generating frequency data, in particular a frequency spectrum, comprising a frequency dimension (f) and an amplitude dimension (a), characterized in that in an analysis step the control system identifies in the frequency data a dominant window having a width in the frequency dimension (f) and meeting an amplitude criterion, that the dominant window includes at least two frequencies or frequency bins in the frequency dimension (f), that the amplitude criterion is based on a sum of amplitudes inside the dominant window, that the control system identifies the dominant window by searching on at least a section, in particular a pre-defined section, of the frequency dimension (f) for a window fulfilling the amplitude criterion and that based on the dominant window the control system determines the classification of atrial fibrillation in the ECG data.
A refrigeration cycle apparatus in which a non-azeotropic refrigerant mixture circulates through a refrigeration cycle configured by a compressor, a condenser, a liquid receiver, a decompressor, an evaporator and a low-pressure vapor/liquid separator which are connected sequentially, the non-azeotropic refrigerant mixture consisting of a high-boiling refrigerant and a or some low-boiling refrigerant(s) mixed together at a predetermined mixing ratio, characterized in that the apparatus comprises a controller for adjusting a composition ratio of the non-azeotropic refrigerant mixture stored in the low-pressure vapor/liquid separator and the composition ratio of the non-azeotropic refrigerant mixture made to flow out of the low-pressure vapor/liquid separator by controlling opening of the decompressor, and determining the mixing ratio of the high-boiling refrigerant and the low-boiling refrigerant of the non-azeotropic refrigerant mixture so that a saturated vapor line of the non-azeotropic refrigerant mixture where a gauge pressure that suppresses refrigerant decomposition due to incorporation of fluid is 0.00 MPa is ≤ -45°C in a low-pressure circuit formed between the decompressor and the compressor.
A communication method for controlling operation of a near field communication, NFC, tag, wherein the NFC tag is operating in accordance with a first operation mode, the method comprising the steps of: - Receiving, a data request sent by a first mobile telecommunication device, the data request being received via a NFC antenna of the NFC tag for providing access information of the first mobile telecommunication device; - determining an access frequency of the first mobile telecommunication device to the NFC tag, wherein the access frequency is the number of accesses per time; - in response to a determination that the access frequency is higher than a predetermined maximum frequency; • establishing a communication link to a database system connected to the NFC tag; • switching the NFC tag to a second operation mode for communication with the database system; • forwarding the data request to the database system using the communication link; • receiving the access information from the database system via the communication link; • switching back to the first operation mode and sending the received access information to the first mobile telecommunication device via the NFC antenna. - in response to a determination that the access frequency is smaller than the predetermined maximum frequency sending locally stored access information data in response to the data request to the first mobile telecommunication device. - Receiving, a data request sent by a first mobile telecommunication device, the data request being received via a NFC antenna of the NFC tag for providing access information of the first mobile telecommunication device; - determining an access frequency of the first mobile telecommunication device to the NFC tag, wherein the access frequency is the number of accesses per time; - in response to a determination that the access frequency is higher than a predetermined maximum frequency; • establishing a communication link to a database system connected to the NFC tag; • switching the NFC tag to a second operation mode for communication with the database system; • forwarding the data request to the database system using the communication link; • receiving the access information from the database system via the communication link; • switching back to the first operation mode and sending the received access information to the first mobile telecommunication device via the NFC antenna. • establishing a communication link to a database system connected to the NFC tag; • switching the NFC tag to a second operation mode for communication with the database system; • forwarding the data request to the database system using the communication link; • receiving the access information from the database system via the communication link; • switching back to the first operation mode and sending the received access information to the first mobile telecommunication device via the NFC antenna. - in response to a determination that the access frequency is smaller than the predetermined maximum frequency sending locally stored access information data in response to the data request to the first mobile telecommunication device.
A gas turbine engine comprising a fan and an intake liner, the liner comprising at least two acoustic absorption segments forming a duct and an axially extending splice, that is a splice having its longitudinal extent substantially parallel to the main rotational axis of the gas turbine engine, at each axially extending interface between segments, the splice being located between the segments, and where at least one of the splices comprises a first portion and a second portion, the splice having a greater segment separating width in the second portion than in the first portion, so that adjacent the first portion the segments are closer together than adjacent the second portion and where further the first portion is nearer to the fan than the second portion.
A pharmaceutical combination comprising a) the compound 5-(2,6-di-morpholin-4-yl-pyrimidin-4-yl)-4-trifluoromethyl-pyridin-2-ylamine, or a stereoisomer, tautomer, or pharmaceutically acceptable salt thereof, and b) a mTOR inhibitor which is everolimus. a) the compound 5-(2,6-di-morpholin-4-yl-pyrimidin-4-yl)-4-trifluoromethyl-pyridin-2-ylamine, or a stereoisomer, tautomer, or pharmaceutically acceptable salt thereof, and b) a mTOR inhibitor which is everolimus.
A heat recovery steam generator (HRSG), comprising: a base having a base top defining a perimeter and a plurality of columns; and a top platform assembly disposed on the base, the top platform assembly comprising: a first top platform auxiliary module having a first rectangular frame in which a steam manifold is disposed; a second top platform auxiliary module having a second rectangular frame in which a high pressure drum is disposed; and a third top platform auxiliary module having a third rectangular frame in which at least one of a low pressure drum and an intermediate pressure drum is disposed; wherein, based on the shape and components of the first top platform auxiliary module, the second top platform auxiliary module, and the third top platform auxiliary module, the plurality of the columns of the base are spaced at particular distances to support the top platform assembly and to facilitate coupling of the components to the base; wherein the base top defines a plane on which the first top platform auxiliary module, the second top platform auxiliary module, and the third top platform auxiliary module are disposed in a row; and wherein the top platform assembly extends beyond the perimeter of the base top. a base having a base top defining a perimeter and a plurality of columns; and a top platform assembly disposed on the base, the top platform assembly comprising: a first top platform auxiliary module having a first rectangular frame in which a steam manifold is disposed; a second top platform auxiliary module having a second rectangular frame in which a high pressure drum is disposed; and a third top platform auxiliary module having a third rectangular frame in which at least one of a low pressure drum and an intermediate pressure drum is disposed; a first top platform auxiliary module having a first rectangular frame in which a steam manifold is disposed; a second top platform auxiliary module having a second rectangular frame in which a high pressure drum is disposed; and a third top platform auxiliary module having a third rectangular frame in which at least one of a low pressure drum and an intermediate pressure drum is disposed; wherein, based on the shape and components of the first top platform auxiliary module, the second top platform auxiliary module, and the third top platform auxiliary module, the plurality of the columns of the base are spaced at particular distances to support the top platform assembly and to facilitate coupling of the components to the base; wherein the base top defines a plane on which the first top platform auxiliary module, the second top platform auxiliary module, and the third top platform auxiliary module are disposed in a row; and wherein the top platform assembly extends beyond the perimeter of the base top.