mhurhangee/ep-ind-claims huggingface dataset:
Explosion-proof housing in the manner of a "pressure-resistant encapsulation" (ex-d) which delimits an interior which may accommodate electrical components that may form ignition sources, and which has a housing part of weldable material on which a pressure-compensation opening is formed, with at least one pressure-relief body which has two flat sides (14, 15) pointing away from one another and a circumferential surface connecting the flat sides (14, 15) and on which the pressure-compensation opening is arranged, wherein the pressure-relief body is welded to the housing part or otherwise connected thereto by substance bonding, wherein the pressure-relief body is larger than the pressure-relief opening, whereby the pressure-compensation opening is surrounded by an edge opening on which the pressure-relief body lies in mounted state, wherein the circumferential surface of the pressure-relief body is formed as a melt layer which extends from one of the flat sides to the other flat side and along the entire circumferential face of the pressure-relief body and completely covers these, wherein the pressure-relief body is arranged lying on the edge region surrounding the pressure-relief opening of the housing part, and wherein the circumferential face of the pressure-relief body is arranged exposed in direct contact with the surrounding atmosphere or interior. with at least one pressure-relief body which has two flat sides (14, 15) pointing away from one another and a circumferential surface connecting the flat sides (14, 15) and on which the pressure-compensation opening is arranged, wherein the pressure-relief body is welded to the housing part or otherwise connected thereto by substance bonding, wherein the pressure-relief body is larger than the pressure-relief opening, whereby the pressure-compensation opening is surrounded by an edge opening on which the pressure-relief body lies in mounted state, wherein the circumferential surface of the pressure-relief body is formed as a melt layer which extends from one of the flat sides to the other flat side and along the entire circumferential face of the pressure-relief body and completely covers these, wherein the pressure-relief body is arranged lying on the edge region surrounding the pressure-relief opening of the housing part, and wherein the circumferential face of the pressure-relief body is arranged exposed in direct contact with the surrounding atmosphere or interior.
Unmanned aerial vehicle including an inner frame, an inner flight propulsion system mounted on the inner frame, an outer frame forming an outer protective cage that surrounds and protects the inner flight propulsion system, a gimbal system comprising a gimbal frame and at least two rotational couplings (26, 30) with orthogonal axes coupling the inner propulsion system to the outer frame, a control system, a power source, and an outer frame actuation system configured to actively orient the outer frame around at least one axis with respect to the inner frame, wherein the outer frame actuation system comprises an outer air propulsion system configured to govern the orientation of the outer frame, said outer air propulsion system fixed to the outer frame or to the gimbal frame, the inner flight propulsion system configured to enable the UAV to be suspended or flown without thrust from the outer propulsion system.
Motor vehicle arrangement, comprising a windshield, a profile strip fastened to the windshield and a water tank cover adjoining the profile strip, a connecting device being provided which has a first connecting portion associated with the profile strip and a second connecting portion associated with the water tank cover, the first connecting portion having at least one first magnetic element or being formed by such a magnetic element, the second connecting portion having at least one second magnetic element or being formed by such a magnetic element, the first magnetic element and the second magnetic element magnetically interacting with one another in order to connect the profile strip and the water tank cover, characterized in that the first magnetic element has a concavely curved boundary surface facing the second magnetic element or in that the second magnetic element has a concavely curved boundary surface facing the first magnetic element.
A method for transmitting data in a communication network employing Hybrid Automatic Repeat Request, the method comprising: grouping data to be transported into a first group of single-user packets and a second group of data packets smaller in size than the single-user packets; concatenating the data from the second group into a multi-user packet; encoding (502, 504) the single-user packets and the multi-user packets into encoded packets; assigning available traffic resources to one or more of the encoded packets; transmitting the one or more encoded packets having assigned traffic resources; determining whether a positive acknowledgement is received for each transmitted encoded packet; reassigning traffic resources from the transmitted encoded packets for which a positive acknowledgement is received to any of the encoded packets that were not previously assigned traffic resources; and if all of the encoded packets were assigned resources, reassigning traffic resources from the transmitted encoded packets for which a positive acknowledgement is received to transmissions that have not reported a positive acknowledgment. grouping data to be transported into a first group of single-user packets and a second group of data packets smaller in size than the single-user packets; concatenating the data from the second group into a multi-user packet; encoding (502, 504) the single-user packets and the multi-user packets into encoded packets; assigning available traffic resources to one or more of the encoded packets; transmitting the one or more encoded packets having assigned traffic resources; determining whether a positive acknowledgement is received for each transmitted encoded packet; reassigning traffic resources from the transmitted encoded packets for which a positive acknowledgement is received to any of the encoded packets that were not previously assigned traffic resources; and if all of the encoded packets were assigned resources, reassigning traffic resources from the transmitted encoded packets for which a positive acknowledgement is received to transmissions that have not reported a positive acknowledgment.
A method for designing an electrode for a lithium secondary battery, the method comprising: manufacturing a plurality of electrodes each containing an active material, a binder, and a conductive agent, and having a different content of only the conductive agent from each other; applying an alternating current to each of the plurality of electrodes manufactured above while changing a frequency and using a broadband dielectric spectrometer to measure conductivity of each of the electrodes; identifying a specific frequency (Fc) at a point at which the conductivity of each of the electrodes changes from a DC conductivity to an AC conductivity; and comparing the specific frequency (Fc) with a preset reference frequency (Fr) of 10 7 Hz to determine a content of the conductive agent contained in an electrode corresponding to a case in which a deviation between the reference frequency (Fr) and the specific frequency (Fc) is within a reference deviation of 3×10 6 Hz, as an appropriate value. manufacturing a plurality of electrodes each containing an active material, a binder, and a conductive agent, and having a different content of only the conductive agent from each other; applying an alternating current to each of the plurality of electrodes manufactured above while changing a frequency and using a broadband dielectric spectrometer to measure conductivity of each of the electrodes; identifying a specific frequency (Fc) at a point at which the conductivity of each of the electrodes changes from a DC conductivity to an AC conductivity; and comparing the specific frequency (Fc) with a preset reference frequency (Fr) of 10 7 Hz to determine a content of the conductive agent contained in an electrode corresponding to a case in which a deviation between the reference frequency (Fr) and the specific frequency (Fc) is within a reference deviation of 3×10 6 Hz, as an appropriate value.
In vitro use of an adenovirus for restoring drug sensitivity of drug resistant cells or for reversing drug resistance in cells, whereby the adenovirus is replicating in a YB-1 dependent manner, whereby the drug is a cytostatic and the resistance is mediated by a gene the transcription of which is activated by YB-1, whereby the cells are not sensitive or no longer sensitive to the cytostatic, and whereby the adenovirus is replication deficient in cells which lack YB-1 in the nucleus, and whereby the adenovirus encodes an oncogene protein which transactivates an E1B55kDa gene and an E4orf6 gene, whereby the oncogene is E1A, or whereby the adenovirus expresses an E1B55kDa protein and an E4orf6 protein prior to an E1A12S protein. whereby the adenovirus is replication deficient in cells which lack YB-1 in the nucleus, and whereby the adenovirus encodes an oncogene protein which transactivates an E1B55kDa gene and an E4orf6 gene, whereby the oncogene is E1A, or whereby the adenovirus expresses an E1B55kDa protein and an E4orf6 protein prior to an E1A12S protein.
An ion filter for a mass spectrometer, the apparatus comprising: an ion modifier comprising two ion modifier electrodes, the two ion modifier electrodes each comprising an array of conductors arranged across the direction of travel of ions, and wherein the ion modifier is operable in: (i) a first mode to subject the ions to a radiofrequency electric field to modify the ions by raising their effective temperature, and (ii) a second mode to allow the ions to pass without subjecting the ions to energy to modify them; an ion selector configured to select a subset of a sample of ions based on their mobility in a gas, the ion selector comprising an ion gate, wherein the ion gate is configured to be: (i) opened to allow ions to pass towards a said mass spectrometer, and (ii) closed to inhibit the passage of ions towards said mass spectrometer; and a controller configured to operate the ion modifier in the first mode to modify the ions selected by the ion selector to provide fragmented ions, and configured to operate the ion modifier in the second mode to output the ions selected by the ion selector; wherein the controller is configured to control opening and closing of the ion gate to select the subset of ions; and wherein the ion filter is adapted for providing output ions from the ion modifier to an intake of a mass spectrometer. an ion modifier comprising two ion modifier electrodes, the two ion modifier electrodes each comprising an array of conductors arranged across the direction of travel of ions, and wherein the ion modifier is operable in: (i) a first mode to subject the ions to a radiofrequency electric field to modify the ions by raising their effective temperature, and (ii) a second mode to allow the ions to pass without subjecting the ions to energy to modify them; an ion selector configured to select a subset of a sample of ions based on their mobility in a gas, the ion selector comprising an ion gate, wherein the ion gate is configured to be: (i) opened to allow ions to pass towards a said mass spectrometer, and (ii) closed to inhibit the passage of ions towards said mass spectrometer; and a controller configured to operate the ion modifier in the first mode to modify the ions selected by the ion selector to provide fragmented ions, and configured to operate the ion modifier in the second mode to output the ions selected by the ion selector; wherein the controller is configured to control opening and closing of the ion gate to select the subset of ions; and wherein the ion filter is adapted for providing output ions from the ion modifier to an intake of a mass spectrometer.
A drive system for an elevator installation, comprising a drive, and a drive suspension for fastening the drive to a support element of the elevator installation, wherein the drive suspension comprises: - a rotary joint for tiltably mounting the drive on the support element; and - an adjustment device for setting a tilt of the drive about the rotary joint, wherein the rotary joint comprises: a fixing part which is designed for fastening to the support element; and a first suspension part which is fastened to the drive; wherein the fixing part and the first suspension part are rotatably connected to each other, characterized in that the first suspension part has at least one first opening and the fixing part has at least one second opening; and in that the rotary joint comprises a connecting element which is arranged so as to pass through the at least one first opening and the at least one second opening. a drive suspension for fastening the drive to a support element of the elevator installation, wherein the drive suspension comprises: - a rotary joint for tiltably mounting the drive on the support element; and - an adjustment device for setting a tilt of the drive about the rotary joint, - a rotary joint for tiltably mounting the drive on the support element; and - an adjustment device for setting a tilt of the drive about the rotary joint, wherein the rotary joint comprises: a fixing part which is designed for fastening to the support element; and a first suspension part which is fastened to the drive; wherein the fixing part and the first suspension part are rotatably connected to each other, characterized in that the first suspension part has at least one first opening and the fixing part has at least one second opening; and in that the rotary joint comprises a connecting element which is arranged so as to pass through the at least one first opening and the at least one second opening. a fixing part which is designed for fastening to the support element; and a first suspension part which is fastened to the drive; wherein the fixing part and the first suspension part are rotatably connected to each other, characterized in that the first suspension part has at least one first opening and the fixing part has at least one second opening; and in that the rotary joint comprises a connecting element which is arranged so as to pass through the at least one first opening and the at least one second opening.
An assembly comprising at least one volume surrounded by a wall provided with a thermal barrier which surrounds said volume, the thermal barrier being suitable for helping to maintain, within said volume, a temperature within a predetermined range while the barrier is disposed in an external environment subjected to a non-constant temperature, the barrier comprising the following from inside, where said volume is located, toward outside where said external environment is located: -- a first element containing at least one phase change material that stores or releases thermal energy through a change of state and having a first state change temperature (Tf), then, -- a second element containing at least one phase change material that stores or releases thermal energy through a change of state and having a second state change temperature (Tc), the second state change temperature being different from the first state change temperature, the assembly being characterized in that it further comprises: -- a third, thermally insulating, element (5a, 5b) disposed between said first and second elements containing a phase change material, or outside said second element, and - means (20, 22; 24; 26) for temporarily supplying in said internal volume a thermal energy, in a heat exchange relationship with said first element containing at least one phase change material, to thus promote a phase change of said phase change material of the first element. -- a first element containing at least one phase change material that stores or releases thermal energy through a change of state and having a first state change temperature (Tf), then, -- a second element containing at least one phase change material that stores or releases thermal energy through a change of state and having a second state change temperature (Tc), the second state change temperature being different from the first state change temperature, -- a third, thermally insulating, element (5a, 5b) disposed between said first and second elements containing a phase change material, or outside said second element, and - means (20, 22; 24; 26) for temporarily supplying in said internal volume a thermal energy, in a heat exchange relationship with said first element containing at least one phase change material, to thus promote a phase change of said phase change material of the first element. - means (20, 22; 24; 26) for temporarily supplying in said internal volume a thermal energy, in a heat exchange relationship with said first element containing at least one phase change material, to thus promote a phase change of said phase change material of the first element.
Aircraft seat arrangement (30, 30') with a first aircraft seat having a seat area that comprises a sitting surface and a backrest and extends, with a direction of vision from the backrest frontward over the sitting surface, along a longitudinal seat axis, and with a console, which is arranged to the side of the seat area and in an inner space of which a foot space is realised that is open counter to the direction of vision, toward the backrest rear side, and extends with a frontward insertion direction along a longitudinal foot space axis, wherein the seat area and the foot space are arranged at an angle to one another, wherein the longitudinal seat axis and the longitudinal foot space axis include an angle that is open frontward in a direction of vision, and with a second aircraft seat having a seat area that comprises a sitting surface and a backrest and extends, with a direction of vision from the backrest frontward over the sitting surface, along a longitudinal seat axis, and with a console, which is arranged to the side of the seat area and in an inner space of which a foot space is realised that is open counter to the direction of vision, toward the backrest rear side, and extends with a frontward insertion direction along a longitudinal foot space axis, wherein the seat area and the foot space are arranged at an angle to one another, wherein the longitudinal seat axis and the longitudinal foot space axis include an angle that is open frontward in a direction of vision, wherein the positions of the seat area and of the console are interchanged in the first aircraft seat and in the second aircraft seat, and wherein the second aircraft seat is arranged, following the first aircraft seat along a stacking axis, in such a way that the longitudinal seat axis of the seat area of the second, rear aircraft seat is oriented toward the foot space of the first, front aircraft seat, characterised in that an intersection point of the longitudinal seat axes (10, 10') of the front aircraft seat and of the rear aircraft seat is located in the region of the second, rear aircraft seat, wherein for a passenger of the aircraft seat, in a direction of vision in front of the console, a pass-through space results, which is independent from a reconfiguration of the seat areas in their respective reclining position.
A compound of formula wherein HetAr is a five or six membered hetaryl group, containing one, two or three heteroatoms, selected from N, O or S; R 1 is hydrogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, halogen or C 1 -C 7 alkoxy; R 2 is C 1 -C 7 alkyl substituted by halogen; R 3 is hydrogen, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkyl or C 1 -C 7 alkyl substituted by hydroxy; Y is R 4 is C 1 -C 7 alkoxy, C 1 -C 7 alkoxy substituted by halogen or CN; or pharmaceutically active acid addition salts thereof, racemic mixtures or corresponding enantiomers thereof. HetAr is a five or six membered hetaryl group, containing one, two or three heteroatoms, selected from N, O or S; R 1 is hydrogen, C 1 -C 7 alkyl, C 1 -C 7 alkyl substituted by halogen, halogen or C 1 -C 7 alkoxy; R 2 is C 1 -C 7 alkyl substituted by halogen; R 3 is hydrogen, C 1 -C 7 alkyl substituted by halogen, C 1 -C 7 alkyl or C 1 -C 7 alkyl substituted by hydroxy; Y is R 4 is C 1 -C 7 alkoxy, C 1 -C 7 alkoxy substituted by halogen or CN;
A load cell comprising: a strain body; a bridge circuit including a plurality of strain gauges provided on the strain body; a first temperature sensitive resistor containing at least copper and provided on a wiring that is configured to apply a voltage to the bridge circuit; and a second temperature sensitive resistor provided on the wiring and having a material or a material content ratio different from that of the first temperature sensitive resistor, characterized in that a resistance value of the first temperature sensitive resistor is 1.12 times or more a resistance value of the second temperature sensitive resistor. a strain body; a bridge circuit including a plurality of strain gauges provided on the strain body; a first temperature sensitive resistor containing at least copper and provided on a wiring that is configured to apply a voltage to the bridge circuit; and a second temperature sensitive resistor provided on the wiring and having a material or a material content ratio different from that of the first temperature sensitive resistor, characterized in that a resistance value of the first temperature sensitive resistor is 1.12 times or more a resistance value of the second temperature sensitive resistor.
An in-vitro method of producing a modified B cell composition comprising: (a) isolating pan-B cells, memory B cells or switched memory B cells from a sample, thereby obtaining an isolated B cell population, (b) culturing the isolated B cell population in vitro with CD40L, IL-2, IL-4, IL-10, IL-15, IL-21, and a CD40L crosslinking agent, thereby obtaining an expanded B cell population, (c) transfecting the expanded B cell population with a transgene, and (d) differentiating the expanded B cell population in vitro with one or more B cell activating factors, thereby obtaining a modified B cell composition. (a) isolating pan-B cells, memory B cells or switched memory B cells from a sample, thereby obtaining an isolated B cell population, (b) culturing the isolated B cell population in vitro with CD40L, IL-2, IL-4, IL-10, IL-15, IL-21, and a CD40L crosslinking agent, thereby obtaining an expanded B cell population, (c) transfecting the expanded B cell population with a transgene, and (d) differentiating the expanded B cell population in vitro with one or more B cell activating factors, thereby obtaining a modified B cell composition.