mhurhangee/ep-ind-claims huggingface dataset:
A communication circuit configured to have an active communication mode and a passive communication mode that are provided as communication modes of near field wireless communication, and configured to, when a connection of the near field wireless communication is established in the active communication mode with another device, receive information about a service that uses the passive communication mode from the other device, characterized in that, when it is determined that the service that uses the passive communication mode is used from among services received from the other device, the connection established in the active communication mode with the other device is released, and a connection of the near field wireless communication with the other device is established in the passive communication mode.
A speargun for underwater fishing comprising a metal spear provided with one or more engagement heels, a hand grip having a retaining mechanism for retaining said spear and provided with a trigger for releasing said spear, a barrel having an upper longitudinal guide that slidingly supports said spear, and a terminal head for engaging at least one rubber band for the propulsive thrust of the spear, characterised in that said head has a rear end connecting to said barrel, a front end and a front recess where at least one permanent magnet for attracting said spear is positioned, a front wall of said front recess opening onto said front end, said head having a plurality of holes for engaging corresponding circular rubber bands for the propulsive thrust of the spear, said holes being interposed between said rear end of said head and said permanent magnet.
A medical portable terminal device comprising: an operation panel section including a touch panel for a first operator placed in a non-sterilized area to operate and configured to be capable of controlling, according to touch operation on the touch panel, operations of a plurality of medical instruments disposed in the non-sterilized area; an image pickup section configured to pick up an image of a region where a second operator performs operation of a gesture; a recognizing section configured to recognize the operation of the gesture from the picked-up image picked up by the image pickup section; an operation-list memorizing section configured to memorize an operation list for causing the plurality of medical instruments to perform a plurality of operations associated with a recognition result of the recognizing section; and a control section configured to switch between control of the plurality of medical instruments based on operation of the operation panel section and control of the plurality of medical instruments based on the operation of the gesture. an operation panel section including a touch panel for a first operator placed in a non-sterilized area to operate and configured to be capable of controlling, according to touch operation on the touch panel, operations of a plurality of medical instruments disposed in the non-sterilized area; an image pickup section configured to pick up an image of a region where a second operator performs operation of a gesture; a recognizing section configured to recognize the operation of the gesture from the picked-up image picked up by the image pickup section; an operation-list memorizing section configured to memorize an operation list for causing the plurality of medical instruments to perform a plurality of operations associated with a recognition result of the recognizing section; and a control section configured to switch between control of the plurality of medical instruments based on operation of the operation panel section and control of the plurality of medical instruments based on the operation of the gesture.
A graphical programming environment for programming a manipulator process, in particular a mounting process, comprising a plurality of graphical function modules (110, 111, 112, 120, 121, 122) for carrying out a sub-process respectively, wherein at least one sub-process and/or at least one manipulator can be controlled during programming, in particular online, by means of one of these function modules, wherein a function module represents a process module or a basic command of a process module library with a plurality of parameterizable process modules ("search ()", "peg_in_hole ()", "gear ()","screw ()") for carrying out a sub-process, in particular a common sub-process for different manipulator processes, respectively, wherein the process modules comprise a plurality of basic instructions of a common basic instruction set for carrying out an, in particular atomic or molecular, basic operation, respectively, wherein a process module can be linked with a further process module and/or a basic command, in particular mathematically, characterized in that a function module can be positioned by touching a display surface, and in that function modules can be linked automatically depending on their position.
A method for producing a recombinant protein in cultured 293 cells, said method comprising: obtaining a suspension culture comprising 293 cells in a high density culture medium, said suspension culture having a cell density of between 2x10 6 to 2x10 7 cells/ml; transfecting said 293 cells with an expressible nucleic acid comprising an expression vector containing a genetic sequence capable of producing an expressed protein; incubating said transfected 293 cells for a first period of time; contacting said transfected 293 cells with at least one expression enhancer composition comprising valproic acid (VPA, acid and sodium salt); incubating said transfected 293 cells in the presence of said expression enhancer composition for a second period of time such that said vector expresses said protein; and harvesting said transfected 293 cells after said second period of time; wherein said high density culture medium is not replaced, replenished or supplemented following the transfection step. obtaining a suspension culture comprising 293 cells in a high density culture medium, said suspension culture having a cell density of between 2x10 6 to 2x10 7 cells/ml; transfecting said 293 cells with an expressible nucleic acid comprising an expression vector containing a genetic sequence capable of producing an expressed protein; incubating said transfected 293 cells for a first period of time; contacting said transfected 293 cells with at least one expression enhancer composition comprising valproic acid (VPA, acid and sodium salt); incubating said transfected 293 cells in the presence of said expression enhancer composition for a second period of time such that said vector expresses said protein; and harvesting said transfected 293 cells after said second period of time; wherein said high density culture medium is not replaced, replenished or supplemented following the transfection step.
A catalytic converter apparatus (100, 200, 300, 400, 500) for use in an exhaust system of an internal combustion engine, the apparatus comprising: a) a housing (102, 202, 302, 402, 502), the housing including a gas inlet (104, 204, 304, 404, 504) and a gas outlet (106, 206, 306, 406, 506); b) at least one substrate element (108, 208, 308, 408, 508) arranged in the housing, the at least one substrate element including catalytic material, the at least one substrate element divided into a plurality of zones (108 a-b, 208 a-c, 308 a-c, 408 a-d, 508), each of the zones defining a generally separate flow passage connecting the inlet and the outlet in fluid communication, c) at least one wall (110 a-d, 210a, 210b, 310a, 310b, 410 a-d, 510) at least partially separating the plurality of zones, wherein the at least one wall comprises insulating material for inhibiting heat flow between the zones and the at least one wall separates the zones so as to be generally impervious to gas flow between adjacent zones, the catalytic converter apparatus being characterised in that, the zones are defined by a unitary substrate element and wherein each of the plurality of zones is connected to at least another of the plurality of zones by a portion of the unitary substrate element. a) a housing (102, 202, 302, 402, 502), the housing including a gas inlet (104, 204, 304, 404, 504) and a gas outlet (106, 206, 306, 406, 506); b) at least one substrate element (108, 208, 308, 408, 508) arranged in the housing, the at least one substrate element including catalytic material, the at least one substrate element divided into a plurality of zones (108 a-b, 208 a-c, 308 a-c, 408 a-d, 508), each of the zones defining a generally separate flow passage connecting the inlet and the outlet in fluid communication, c) at least one wall (110 a-d, 210a, 210b, 310a, 310b, 410 a-d, 510) at least partially separating the plurality of zones, wherein the at least one wall comprises insulating material for inhibiting heat flow between the zones and the at least one wall separates the zones so as to be generally impervious to gas flow between adjacent zones, the catalytic converter apparatus being characterised in that, the zones are defined by a unitary substrate element and wherein each of the plurality of zones is connected to at least another of the plurality of zones by a portion of the unitary substrate element.
Fault diagnostics system for an aircraft brake system, comprising: a plurality of sensors coupled with the brake system and/or wheels of the aircraft coupled with the brake system for detecting physical parameters that characterize at least a braking process, an onboard data acquisition unit, and a diagnostics unit, wherein the onboard data acquisition unit is coupled with the plurality of sensors and is adapted to collect sensor data generated by the plurality of sensors during a braking process, wherein the onboard data acquisition unit is couplable with the diagnostics unit and is adapted to transfer the collected sensor data or data based on the collected sensor data to the diagnostics unit, and wherein the diagnostics unit comprises a processing unit adapted to analyze the received data through a machine-learning algorithm, which is trained using representative data characterizing normal and various anomalous states, to detect an anomalous state of the aircraft brake system, and, if an anomalous state is detected, to isolate a root cause of the anomalous state. a plurality of sensors coupled with the brake system and/or wheels of the aircraft coupled with the brake system for detecting physical parameters that characterize at least a braking process, an onboard data acquisition unit, and a diagnostics unit, wherein the onboard data acquisition unit is coupled with the plurality of sensors and is adapted to collect sensor data generated by the plurality of sensors during a braking process, wherein the onboard data acquisition unit is couplable with the diagnostics unit and is adapted to transfer the collected sensor data or data based on the collected sensor data to the diagnostics unit, and wherein the diagnostics unit comprises a processing unit adapted to analyze the received data through a machine-learning algorithm, which is trained using representative data characterizing normal and various anomalous states, to detect an anomalous state of the aircraft brake system, and, if an anomalous state is detected, to isolate a root cause of the anomalous state.
A fat or oil composition, which satisfies the following to: a content of α-linolenic acid in constituent fatty acids of a fat or oil is 40 mass% or more; a total content of a saturated fatty acid having 16 carbon atoms and a saturated fatty acid having 18 carbon atoms in the constituent fatty acids of the fat or oil is 6 mass% or less, and a content of the saturated fatty acid having 18 carbon atoms in the constituent fatty acids of the fat or oil is less than 3 mass%; a content mass ratio of the saturated fatty acid having 16 carbon atoms to the saturated fatty acid having 18 carbon atoms, [ /], in the constituent fatty acids of the fat or oil is 0.1 or more and less than 3.5; and a content of diacylglycerols is 25 mass% or more. a content of α-linolenic acid in constituent fatty acids of a fat or oil is 40 mass% or more; a total content of a saturated fatty acid having 16 carbon atoms and a saturated fatty acid having 18 carbon atoms in the constituent fatty acids of the fat or oil is 6 mass% or less, and a content of the saturated fatty acid having 18 carbon atoms in the constituent fatty acids of the fat or oil is less than 3 mass%; a content mass ratio of the saturated fatty acid having 16 carbon atoms to the saturated fatty acid having 18 carbon atoms, [ /], in the constituent fatty acids of the fat or oil is 0.1 or more and less than 3.5; and a content of diacylglycerols is 25 mass% or more.
Device for adjusting the power of a WLAN network in a limited space, the space being a motor vehicle, comprising a first WLAN module in the space, which module is used to communicate with at least one second WLAN module in the space, and at least one reference WLAN module, the reference WLAN module being designed in such a manner that WLAN signals from the first WLAN module are received and a signal strength (P E) is determined and is transmitted to the first WLAN module, the first WLAN module being designed in such a manner that the transmission power (P S) of the first WLAN module is adjusted on the basis of the signal strength (P E) transmitted from the reference WLAN module in such a manner that the received signal strength (P E) at the reference WLAN module is less than a predefined upper and greater threshold value (P E, oben) than a lower threshold value (P E, untan), at least one antenna of the reference WLAN module being arranged on the outside of the motor vehicle.
A processor-implemented method, comprising: collecting, via one or more hardware processors, a Bluetooth Low Energy, BLE, beacon emitted by at least one client device, by a first receiver (102.a) and a second receiver (102.b), measuring Received Signal Strength Indication, RSSI, value of the BLE beacon, via the one or more hardware processors, with respect to the first receiver (102.a) and the second receiver (102.b), wherein the first receiver (102.a) is positioned outside an entrance point of a room with respect to which the entry event or the exit event is determined for the user, wherein the second receiver (102.b) is positioned inside an entrance point of a room with respect to which the entry event or the exit event is determined for the user; and determining one of an entry event or an exit event for a user of the client device, via one or more hardware processors, when the BLE beacon received at both the first receiver (102.a) and the second receiver (102.b) is within a same time window, and initiate a timer window upon reception of the BLE beacon signal by the first receiver (102.a) or the second receiver (102.b) and terminate the timer window upon receiving confirmation indicating reception of the BLE beacon from both the first receiver (102.a) and the second receiver (102.b) is within the same time window. collecting, via one or more hardware processors, a Bluetooth Low Energy, BLE, beacon emitted by at least one client device, by a first receiver (102.a) and a second receiver (102.b), measuring Received Signal Strength Indication, RSSI, value of the BLE beacon, via the one or more hardware processors, with respect to the first receiver (102.a) and the second receiver (102.b), wherein the first receiver (102.a) is positioned outside an entrance point of a room with respect to which the entry event or the exit event is determined for the user, wherein the second receiver (102.b) is positioned inside an entrance point of a room with respect to which the entry event or the exit event is determined for the user; and determining one of an entry event or an exit event for a user of the client device, via one or more hardware processors, when the BLE beacon received at both the first receiver (102.a) and the second receiver (102.b) is within a same time window, and initiate a timer window upon reception of the BLE beacon signal by the first receiver (102.a) or the second receiver (102.b) and terminate the timer window upon receiving confirmation indicating reception of the BLE beacon from both the first receiver (102.a) and the second receiver (102.b) is within the same time window.
A process for preparing an ion exchange membrane, said process comprising mixing and polymerizing: ionic monomers having a negatively charged ionic group selected from the group consisting of sodium 4-vinylbenzenesulfonate, 3-sulfopropyl acrylate potassium salt, 2-acrylamido-2-methyl-1-propanesulfonic acid, vinylsulfonic acid, with an acrylamide-based crosslinking monomer, or comprising mixing and polymerizing: ionic monomers having a positively charged ionic group selected from the group consisting of 3-acrylamidopropyl trimethylammonium chloride, 2-acryloyloxyethyl trimethylammonium chloride, 2-methacryloyloxyethyl trimethylammonium chloride, 3-methacryloylaminopropyl trimethylammonium chloride, and vinylbenzyl trimethylammonium chloride with an acrylamide-based crosslinking monomer; wherein the acrylamide-based crosslinking monomer has a chemical structure shown in formula 1, wherein R is an aliphatic radical derived from the removal of the isocyanate groups from isophorone diisocyanate, 2,2,4-trimethylhexamethylene diisocyanate, dicyclohexylmethane 4,4'-diisocyanate, or methylene diphenyl diisocyanate, and R' is a hydrogen atom or a methyl group, and wherein the mixture comprises 10 wt % to 60 wt % of crosslinking monomer based on the total monomer weight. ionic monomers having a positively charged ionic group selected from the group consisting of 3-acrylamidopropyl trimethylammonium chloride, 2-acryloyloxyethyl trimethylammonium chloride, 2-methacryloyloxyethyl trimethylammonium chloride, 3-methacryloylaminopropyl trimethylammonium chloride, and vinylbenzyl trimethylammonium chloride with an acrylamide-based crosslinking monomer; wherein the acrylamide-based crosslinking monomer has a chemical structure shown in formula 1, wherein R is an aliphatic radical derived from the removal of the isocyanate groups from isophorone diisocyanate, 2,2,4-trimethylhexamethylene diisocyanate, dicyclohexylmethane 4,4'-diisocyanate, or methylene diphenyl diisocyanate, and R' is a hydrogen atom or a methyl group, and wherein the mixture comprises 10 wt % to 60 wt % of crosslinking monomer based on the total monomer weight.
An arrangement comprising whirlpool cladding and a free-standing outdoor whirlpool with a whirlpool tank (2.1), whirlpool technology (2.2) and whirlpool outer shell (2.3), wherein the whirlpool cladding is different from the whirlpool outer shell (2.3) and comprises a frame and a plurality of cladding elements, wherein the cladding elements are attached to the frame and comprise lateral vertical (5.1) and upper horizontal (5.2) cladding elements, wherein - the frame of the cladding is arranged around the whirlpool outer shell (2.3) of the whirlpool, wherein the frame is based on horizontal supports (3.1, 3.2) and vertical supports (3.3), characterised in that the frame comprises a lower support (3.1) and an upper support (3.2) at each frame side, wherein the lower support (3.1) and the upper support (3.2) are connected to one another by means of a corner support (3.3), which is arranged in the corner regions of the cladding, and - that at least one lateral cladding element (5.1) is fitted reversibly and without assembly/dismantling of fixing means to the frame and can be removed again. - the frame of the cladding is arranged around the whirlpool outer shell (2.3) of the whirlpool, wherein the frame is based on horizontal supports (3.1, 3.2) and vertical supports (3.3), characterised in that the frame comprises a lower support (3.1) and an upper support (3.2) at each frame side, wherein the lower support (3.1) and the upper support (3.2) are connected to one another by means of a corner support (3.3), which is arranged in the corner regions of the cladding, and - that at least one lateral cladding element (5.1) is fitted reversibly and without assembly/dismantling of fixing means to the frame and can be removed again.
An oral care implement handle comprising: a gripping portion extending from a proximal end to a distal end; a stem comprising an attachment portion protruding from a first transverse shoulder at the distal end of the gripping portion, the stem extending along a stem axis (B-B) and configured to be detachably coupled to a replaceable oral care device, the attachment portion of the stem comprising: a second transverse shoulder axially spaced from the first transverse shoulder; and a post protruding from the second transverse shoulder, the post terminating in a closed distal end that forms a free end of the attachment portion of the stem, the post comprising a hub portion extending along the stem axis (B-B) and a plurality of protuberances protruding radially from a side surface of the hub portion; and upward from the second transverse shoulder; and a vibration generating device; characterized in that the plurality of protuberances are circumferentially arranged about the hub portion in a spaced-apart manner from one another. a gripping portion extending from a proximal end to a distal end; a stem comprising an attachment portion protruding from a first transverse shoulder at the distal end of the gripping portion, the stem extending along a stem axis (B-B) and configured to be detachably coupled to a replaceable oral care device, the attachment portion of the stem comprising: a second transverse shoulder axially spaced from the first transverse shoulder; and a post protruding from the second transverse shoulder, the post terminating in a closed distal end that forms a free end of the attachment portion of the stem, the post comprising a hub portion extending along the stem axis (B-B) and a plurality of protuberances protruding radially from a side surface of the hub portion; and upward from the second transverse shoulder; and a vibration generating device; characterized in that a second transverse shoulder axially spaced from the first transverse shoulder; and a post protruding from the second transverse shoulder, the post terminating in a closed distal end that forms a free end of the attachment portion of the stem, the post comprising a hub portion extending along the stem axis (B-B) and a plurality of protuberances protruding radially from a side surface of the hub portion; and upward from the second transverse shoulder; and a vibration generating device; the plurality of protuberances are circumferentially arranged about the hub portion in a spaced-apart manner from one another.