mhurhangee/ep-ind-claims huggingface dataset:
A differential dynamic charge pump circuit comprising; a first charging stage in series with a second charging stage; the first charging stage comprising a first circuit input) for receiving an alternating clock signal; a second circuit input for receiving an inverted version of the alternating clock signal; an upper charge pump arrangement between a voltage supply terminal for receiving a supply voltage for the circuit and the first and second input; a lower charge pump arrangement between a ground terminal of the circuit and the first and second input; a first output inverter arrangement configured to receive output voltages from the upper and lower charge pump arrangements and having a first output and a second output for providing a dynamic differential output; the second charging stage comprising a first input configured to receive an output signal from the first output of the first stage; and a second input configured to receive an output signal from the second output of the first stage; an upper charge pump arrangement between a voltage supply terminal for receiving a supply voltage for the circuit and the first and second input; a lower charge pump arrangement between a ground terminal of the circuit and the first and second input; a second output inverter arrangement configured to receive output voltages from the upper and lower charge pump arrangements and having a first output and a second output for providing a dynamic differential output of the circuit; wherein the first output inverter arrangement includes a first pair of transistors (44,45) to control the voltage applied to the first output and a second pair of transistors (46,47) configured to control the voltage applied to the second output, wherein gate terminals of the first pair of transistors and gate terminals of the second pair of transistors are configured to be dynamically controlled; and the second output inverter arrangement includes a first pair of transistors 100,101) to control the voltage applied to the first output and a second pair of transistors (102, 103) configured to control the voltage applied to the second output, wherein a first transistor of the first pair of transistors and a first transistor of the second pair of transistors include a gate terminal configured to receive a first non-alternating voltage and a second transistor of the first pair of transistors and a second transistor of the second pair of transistors include a gate terminal configured to receive a second non-alternating voltage lower than the first non-alternating voltage.
An ice making apparatus having an ice maker for making ice and an ice bank having an opened surface facing the ice maker and being disposed below the ice maker to receive ice ejected from the ice maker, the ice making apparatus including: an ice-making mold for receiving ice; an ejector for ejecting ice made by the ice-making mold and comprising a shaft; a pivot for rotating the ejector; a cam, and an ice-full state sensing lever, characterized in that the cam is connected to the pivot to rotate together with the ejector shaft, the ice making apparatus further comprising: a sub-link selectively contacting with an outer surface of the cam to reciprocate; a cylindrical link for restricting a rotation of the sub-link, wherein the cam, the pivot and the cylindrical link are supported and rotated on a first pivot point; a stopping protrusion provided at a periphery of the cylindrical link to restrict the rotation of the sub-link; a main link having one end pushed by the sub-link to reciprocate and the other end extended toward a side near the ice bank to reciprocate; a terminal link including a protrusion protruding therefrom, the protrusion inserted into a slot formed at the other end of the main link; the ice-full state sensing lever being connected to the terminal link, wherein the ice-full state sensing lever is pivoted by rotation of the terminal link, when the other end of the main link reciprocates. a sub-link selectively contacting with an outer surface of the cam to reciprocate; a cylindrical link for restricting a rotation of the sub-link, wherein the cam, the pivot and the cylindrical link are supported and rotated on a first pivot point; a stopping protrusion provided at a periphery of the cylindrical link to restrict the rotation of the sub-link; a main link having one end pushed by the sub-link to reciprocate and the other end extended toward a side near the ice bank to reciprocate; a terminal link including a protrusion protruding therefrom, the protrusion inserted into a slot formed at the other end of the main link; the ice-full state sensing lever being connected to the terminal link, wherein the ice-full state sensing lever is pivoted by rotation of the terminal link, when the other end of the main link reciprocates.
A communication control method comprising: acquiring information indicating synchronization relation of a plurality of frequency bands, the synchronization relation indicating which first frequency band among one or more frequency bands of the plurality of frequency bands is synchronized with which second frequency band among the one or more different frequency bands of the plurality of frequency bands; controlling transmission of the information to a terminal device, and transmitting a common reference signal with the first frequency band but not with the second frequency band, the first frequency band and the second frequency being mutually synchronized. acquiring information indicating synchronization relation of a plurality of frequency bands, the synchronization relation indicating which first frequency band among one or more frequency bands of the plurality of frequency bands is synchronized with which second frequency band among the one or more different frequency bands of the plurality of frequency bands; controlling transmission of the information to a terminal device, and transmitting a common reference signal with the first frequency band but not with the second frequency band, the first frequency band and the second frequency being mutually synchronized.
A liquid ejecting head, comprising: an energy generation element that generates energy for applying pressure to liquid inside a pressure compartment; a vibrating plate that vibrates due to the energy; and a pressure compartment substrate that includes a first surface, which is in contact with a part of a bottom surface of the vibrating plate, and a first wall surface, which is continuous from the first surface, wherein a recessed portion that includes a bottom portion and a curved portion surrounding the bottom portion is provided in the bottom surface of the vibrating plate, the curved portion is provided from an end of the bottom portion to an end of the recessed portion and has a curved surface shape, a plurality of wall surfaces that constitute inner walls of the pressure compartment includes a surface of the recessed portion and the first wall surface, and an angle (θ1) formed by the first surface and the first wall surface, the angle being an interior angle of the pressure compartment substrate, is greater than 150° and less than 180°. an energy generation element that generates energy for applying pressure to liquid inside a pressure compartment; a vibrating plate that vibrates due to the energy; and a pressure compartment substrate that includes a first surface, which is in contact with a part of a bottom surface of the vibrating plate, and a first wall surface, which is continuous from the first surface, wherein a recessed portion that includes a bottom portion and a curved portion surrounding the bottom portion is provided in the bottom surface of the vibrating plate, the curved portion is provided from an end of the bottom portion to an end of the recessed portion and has a curved surface shape, a plurality of wall surfaces that constitute inner walls of the pressure compartment includes a surface of the recessed portion and the first wall surface, and an angle (θ1) formed by the first surface and the first wall surface, the angle being an interior angle of the pressure compartment substrate, is greater than 150° and less than 180°.
A polypeptide comprising a first amino acid sequence present in a vWF polypeptide and a second amino acid sequence heterologous to the first, wherein the polypeptide is capable of binding a FVIII and forming dimers, oligomers and multimers, with the proviso that the polypeptide lacks at least vWF domains D4, B1, B2, B3, C1, C2 and CK, wherein the second amino acid sequence corresponds to an immunoglobulin Fc, wherein the second amino acid sequence is C-terminus to the first amino acid sequence, and wherein the first amino acid sequence is as set forth in SEQ ID NO: 11, SEQ ID NO: 13 or SEQ ID NO: 15.
A method for removing carbon dioxide from hydrocarbons, the method comprising the steps of: (a) contacting a feed stream (12, 52) comprising hydrocarbons and carbon dioxide with a gas-separation membrane to produce a hydrocarbon-rich retentate gas stream (28, 56) and a permeate gas stream (32, 58) rich in carbon dioxide, said retentate gas stream (28, 56) containing less carbon dioxide relative to said feed stream (12, 52), wherein step (a) is a single-stage membrane separation and said feed stream (12, 52) comprises 80 to 95 mol% CO 2; and (b) passing at least one of said retentate gas stream (28, 56) or said permeate gas stream (32, 58) through an absorption unit to produce a hydrocarbon-rich gas phase and a liquid absorbent phase containing carbon dioxide, wherein said passing step (b) comprises providing a permeable membrane (44, 82) within said absorption unit to thereby define a gas flow region and a liquid flow region separated by said permeable membrane (44, 82), and wherein the liquid absorbent (22, 72) is seawater. (a) contacting a feed stream (12, 52) comprising hydrocarbons and carbon dioxide with a gas-separation membrane to produce a hydrocarbon-rich retentate gas stream (28, 56) and a permeate gas stream (32, 58) rich in carbon dioxide, said retentate gas stream (28, 56) containing less carbon dioxide relative to said feed stream (12, 52), wherein step (a) is a single-stage membrane separation and said feed stream (12, 52) comprises 80 to 95 mol% CO 2; and (b) passing at least one of said retentate gas stream (28, 56) or said permeate gas stream (32, 58) through an absorption unit to produce a hydrocarbon-rich gas phase and a liquid absorbent phase containing carbon dioxide, wherein said passing step (b) comprises providing a permeable membrane (44, 82) within said absorption unit to thereby define a gas flow region and a liquid flow region separated by said permeable membrane (44, 82), and
Interconnection equipment for a high-voltage direct current network, comprising: - first and second terminals configured for connection to first and second lines of a high-voltage direct current network (201, 202), a third terminal configured for connection to a local station or to a line of the high-voltage network; - a node connected to the first to third terminals (201, 203); characterised in that it comprises: - a first superconducting current limiter and a first controlled switch connected in series between the first terminal and said node; - a second superconducting current limiter and a second controlled switch connected in series between the second terminal and said node; - a third superconducting current limiter and a third controlled switch connected in series between the third terminal and said node; - a device configured to inject an electric current into said node during a voltage drop on said node. - first and second terminals configured for connection to first and second lines of a high-voltage direct current network (201, 202), a third terminal configured for connection to a local station or to a line of the high-voltage network; - a node connected to the first to third terminals (201, 203); - a first superconducting current limiter and a first controlled switch connected in series between the first terminal and said node; - a second superconducting current limiter and a second controlled switch connected in series between the second terminal and said node; - a third superconducting current limiter and a third controlled switch connected in series between the third terminal and said node; - a device configured to inject an electric current into said node during a voltage drop on said node.
Method for testing filter cigarettes in a packaging process, in which the filter cigarettes are packaged in cigarette packs, and for further handling of the filter cigarettes during the packaging process, having the following steps: a) within the packaging process, a camera is used to record in each case an image of at least a partial region of the end side (13a, b) of the filter cigarette being tested in each case, characterized in that: b) on the basis of the image information items contained in the recorded image, the type of filter (24a-e) corresponding to the filter (13a, b) of the filter cigarette being tested is identified from an electronic data store, in which different types of filter (24a-e), in particular identifiers of said types of filter (24a-e), are in each case assigned different image information items, c) at least one further method step in the packaging process takes place depending on the type of filter (24a-e), which is identified in this manner, of the filter cigarette being tested. a) within the packaging process, a camera is used to record in each case an image of at least a partial region of the end side (13a, b) of the filter cigarette being tested in each case, b) on the basis of the image information items contained in the recorded image, the type of filter (24a-e) corresponding to the filter (13a, b) of the filter cigarette being tested is identified from an electronic data store, in which different types of filter (24a-e), in particular identifiers of said types of filter (24a-e), are in each case assigned different image information items, c) at least one further method step in the packaging process takes place depending on the type of filter (24a-e), which is identified in this manner, of the filter cigarette being tested.
A client device for communicating with a wireless access point, wherein the client device comprises a data processing module configured to receive at least a portion of a frame transmitted by the access point up to an intermediate location within the frame and a channel assessment module configured to determine a validity window with respect to the intermediate location, wherein the validity window is determined by assessing whether a first duration metric corresponding to a time period between a preamble of the frame and the intermediate location is within a coherence time expected for a channel used to transmit the frame, wherein the channel assessment module is further configured to determine whether a first channel quality metric determined from the preamble is greater than or equal to a given threshold, and wherein, if it is determined that the first channel quality metric is greater than or equal to the given threshold, the validity windows is defined as spanning the first duration metric and the data processing module is configured to validate the information received within the validity window prior to receiving the entire frame.
A method for controlling a surge margin of a gas turbine, comprising: determining a number of revolutions and pressure ratios of compressors (11, 12, 13) located at an initial stage among a plurality of compressor stages (11, 12, 13) installed in a compressor unit of a gas turbine, wherein the compressors (11, 12, 13) located at the initial stage comprise a first compressor stage, a neighboring compressor stage, and a next compressor stage; and controlling a surge margin, according to the number of revolutions and pressure ratios so determined, by extracting compressed air from each of the compressor stages (11, 12, 13) to a turbine, when the surge margin at the initial compressor stage does not satisfy a reference margin, wherein the controlling of the surge margin comprises: - a first extraction step of extracting the compressed air from the first compressor stage in which compression is initially performed; - a second extraction step of additionally extracting the compressed air from the neighboring compressor stage located at the next stage of the first compressor stage, when the surge margin is not stabilized after the first extraction step; and - a third extraction step of additionally extracting the compressed air from the next compressor stage, when the surge margin is not stabilized after the first and second extraction steps (ST210, ST220). determining a number of revolutions and pressure ratios of compressors (11, 12, 13) located at an initial stage among a plurality of compressor stages (11, 12, 13) installed in a compressor unit of a gas turbine, wherein the compressors (11, 12, 13) located at the initial stage comprise a first compressor stage, a neighboring compressor stage, and a next compressor stage; and controlling a surge margin, according to the number of revolutions and pressure ratios so determined, by extracting compressed air from each of the compressor stages (11, 12, 13) to a turbine, when the surge margin at the initial compressor stage does not satisfy a reference margin, - a first extraction step of extracting the compressed air from the first compressor stage in which compression is initially performed; - a second extraction step of additionally extracting the compressed air from the neighboring compressor stage located at the next stage of the first compressor stage, when the surge margin is not stabilized after the first extraction step; and - a third extraction step of additionally extracting the compressed air from the next compressor stage, when the surge margin is not stabilized after the first and second extraction steps (ST210, ST220).
Method for bending a glass sheet that has at least one masking region and at least one transparent region, comprising the following method steps: (a) providing a flat glass sheet made of soda lime glass; (b) applying a permanent opaque masking coating to a surface of the glass sheet in the at least one masking region, wherein the masking coating contains a pigment and glass frits, and applying an opaque temporary coating to a surface of the glass sheet in the at least one transparent region, wherein the temporary coating contains a pigment and no glass frits; (c) bending the glass sheet; and (d) removing the temporary coating, wherein the masking coating remains on the glass sheet. (a) providing a flat glass sheet made of soda lime glass; (b) applying a permanent opaque masking coating to a surface of the glass sheet in the at least one masking region, wherein the masking coating contains a pigment and glass frits, and applying an opaque temporary coating to a surface of the glass sheet in the at least one transparent region, wherein the temporary coating contains a pigment and no glass frits; (c) bending the glass sheet; and (d) removing the temporary coating, wherein the masking coating remains on the glass sheet.
A thermo-therapeutic apparatus comprising: a thermal ceramic module including a body, a first supporting plate located on the body, a second supporting plate located on the first supporting plate, an ascending and descending driving part coupled to a lower portion of the first supporting plate and configured to move the first supporting plate in a vertical direction on the basis of the body, and a ceramic member coupled to the second supporting plate; a weight sensor provided on a lower surface of the second supporting plate configured to sense a body pressure of a user; and a controller configured to control setting and performance of a massage mode of the thermal ceramic module, wherein the controller is configured to control a driving height of the ascending and descending driving part according to the body pressure of the user sensed by the weight sensor, to provide the same pressure to the user through the ceramic member on the basis of a predetermined desired intensity, characterized in that the controller is configured to determine whether a predetermined time passes without a predetermined change of the pressure after the weight sensor senses a pressure greater than or equal to a first reference pressure and to control the thermal ceramic module so that the massage mode is automatically started only when a state in which the pressure is greater than or equal to the first reference pressure and does not vary is maintained for the predetermined time. a thermal ceramic module including a body, a first supporting plate located on the body, a second supporting plate located on the first supporting plate, an ascending and descending driving part coupled to a lower portion of the first supporting plate and configured to move the first supporting plate in a vertical direction on the basis of the body, and a ceramic member coupled to the second supporting plate; a weight sensor provided on a lower surface of the second supporting plate configured to sense a body pressure of a user; and a controller configured to control setting and performance of a massage mode of the thermal ceramic module, wherein the controller is configured to control a driving height of the ascending and descending driving part according to the body pressure of the user sensed by the weight sensor, to provide the same pressure to the user through the ceramic member on the basis of a predetermined desired intensity, characterized in that the controller is configured to determine whether a predetermined time passes without a predetermined change of the pressure after the weight sensor senses a pressure greater than or equal to a first reference pressure and to control the thermal ceramic module so that the massage mode is automatically started only when a state in which the pressure is greater than or equal to the first reference pressure and does not vary is maintained for the predetermined time.
A filter element for filtering a fluid, in particular air, having a filter body with a zigzag-folded filter medium, the folds of which extend in a folding direction and which is provided with a front end edge bonding for sealing its fold ends, which is designed discontinuously in the area of at least one recess of the outer contour of the filter body and features at least one first bonding segment arranged on the outside, and comprises a second bonding segment arranged on the inside in the folding direction, wherein the second bonding segment is disposed apart from the first bonding segment in transverse direction to the folding direction, and wherein the two bonding segments (52, 54) bond at least one common fold.