mhurhangee/ep-ind-claims huggingface dataset:
Brake system for a motor vehicle, having an at least single-circuit brake cylinder, by means of which, upon actuation, a brake force can be imparted to at least one wheel of the motor vehicle, the brake cylinder being operatively connected mechanically to a booster cylinder which is decoupled from a brake demand detection means, it being possible for the booster cylinder to be actuated hydraulically in order to activate the brake cylinder in accordance with a driver request which is detected by means of the brake demand detection means, and the brake demand detection means being a sensing cylinder which is operatively connected to a brake pedal and by means of which a deflection of the brake pedal is detected, characterized in that the sensing cylinder is provided for returning a brake force information item which is generated by means of a brake force simulation unit to the driver, the brake force simulation unit being a brake force simulation cylinder which is loaded by way of a spring and is connected to a connecting line which establishes a fluidic connection between the booster cylinder and the sensing cylinder via a connecting valve.
A method for producing a tetraaryl borate compound represented by formula: wherein R 1 to R 3 each represent an alkyl group having 1 to 30 carbon atoms or an aryl group having 6 to 30 carbon atoms, wherein the tetraaryl borate compound represented by formula wherein M + represents NH 4 +, and an amine compound are reacted, wherein the amine compound is represented by formula: wherein R 1 to R 3 are the same as above.
A jellyfish polymer comprising: jellyfish protein; and at least one additive, wherein the at least one additive is selected from the group consisting of: a DNA, a RNA, a PNA (protein nucleic acid), hyaluronic acid, guar, a chitosan polysaccharide, dialdehydes, polyaldehydes, isocyanates, diisocyanates, polyisocyanates, thiocyanates, dithiocyanates, polythiocyanates, diacylhalides, polyacylhalides, dianhydrides, polyanhydrides, dithiols, polythiols, agar, agarose, alginic acid or a salt thereof, gelatin, cellulose, glycerol, PVA (polyvinyl alcohol), PANPS (poly(2-acrylamido-2-methylpropanesulfonic acid)), PAA (poly(acrylamide)), MBAA (N-N'-methylene-bis-acrylamide) and oxoglutaric acid, wherein the jellyfish protein comprises mucin and collagen. jellyfish protein; and at least one additive, wherein the at least one additive is selected from the group consisting of: a DNA, a RNA, a PNA (protein nucleic acid), hyaluronic acid, guar, a chitosan polysaccharide, dialdehydes, polyaldehydes, isocyanates, diisocyanates, polyisocyanates, thiocyanates, dithiocyanates, polythiocyanates, diacylhalides, polyacylhalides, dianhydrides, polyanhydrides, dithiols, polythiols, agar, agarose, alginic acid or a salt thereof, gelatin, cellulose, glycerol, PVA (polyvinyl alcohol), PANPS (poly(2-acrylamido-2-methylpropanesulfonic acid)), PAA (poly(acrylamide)), MBAA (N-N'-methylene-bis-acrylamide) and oxoglutaric acid, wherein the jellyfish protein comprises mucin and collagen.
Nozzle (1.1, 1.2, 1.3) for cleaning a filter element by means of a fluid flow, comprising: at least one first nozzle section (2.1) formed as a hollow truncated cone; at least one first passage, wherein the first passage forms a first nozzle opening (5.1) in a top surface (3.1) of the first nozzle section (2.1); and a plurality of second passages surrounding the first passage, wherein the second passages form second nozzle openings (5.2) in the lateral surface (3.3) of the first nozzle section (2.1), wherein the second passages respectively comprise a passage axis inclined with respect to a parallel axis which extends parallel to a center axis of the nozzle (1.1, 1.2, 1.3), for imparting a helix-like flow contour to the fluid flow. at least one first nozzle section (2.1) formed as a hollow truncated cone; at least one first passage, wherein the first passage forms a first nozzle opening (5.1) in a top surface (3.1) of the first nozzle section (2.1); and a plurality of second passages surrounding the first passage, wherein the second passages form second nozzle openings (5.2) in the lateral surface (3.3) of the first nozzle section (2.1), wherein the second passages respectively comprise a passage axis inclined with respect to a parallel axis which extends parallel to a center axis of the nozzle (1.1, 1.2, 1.3), for imparting a helix-like flow contour to the fluid flow.
Vehicle comprising an electricity supply system, the electricity supply system comprising an electricity production unit configured for generating a first voltage causing a first electrical current to flow, a transformer unit and a fuel storage unit for storing gaseous hydrogen, the production unit comprising at least two fuel cell stacks and comprising a single first electrical connection interface for transmitting the first electrical current to the transformer unit, the production unit comprises a single common cooling circuit filled with a first fluid for cooling each fuel cell stack, a common air supply circuit for supplying air to each fuel cell stack and a single common gaseous hydrogen supply circuit for supplying gaseous hydrogen, from the fuel storage unit, to each fuel cell stack and in that the production unit is separate from the fuel storage unit and connected to the fuel storage unit by a single connection interface, characterized in the production unit being removable from the vehicle as an integrated unit independently from the fuel storage unit, the relative movement of each of the elements (40, 45, 50) comprised in the electricity production unit, with respect to the electrical vehicle, being identical and simultaneous to the movement of each other element (40, 45, 50) comprised in the electricity production unit when removing the electricity production unit from the vehicle as an integrated unit independently from the fuel storage unit. the production unit comprises a single common cooling circuit filled with a first fluid for cooling each fuel cell stack, a common air supply circuit for supplying air to each fuel cell stack and a single common gaseous hydrogen supply circuit for supplying gaseous hydrogen, from the fuel storage unit, to each fuel cell stack and in that the production unit is separate from the fuel storage unit and connected to the fuel storage unit by a single connection interface, characterized in the production unit being removable from the vehicle as an integrated unit independently from the fuel storage unit, the relative movement of each of the elements (40, 45, 50) comprised in the electricity production unit, with respect to the electrical vehicle, being identical and simultaneous to the movement of each other element (40, 45, 50) comprised in the electricity production unit when removing the electricity production unit from the vehicle as an integrated unit independently from the fuel storage unit.
A white light emitting device comprising: a light emitting element having a peak wavelength in a wavelength range of 430 nm or more and 470 nm or less; a first fluorescent material which emits light with a first peak wavelength of 525 nm or more and 560 nm or less; a second fluorescent material which emits light with a second peak wavelength longer than the first peak wavelength; and a third fluorescent material which emits light with a third peak wavelength of 620 nm or more and 750 nm or less, the third peak wavelength longer than the second peak wavelength, wherein the first fluorescent material and the second fluorescent material has a composition of: MSi α O β N γ (However, M includes Eu, necessarily includes Sr or Ba, and may further include Ca, Mg, and Zn. Furthermore, M may contain, as an activator agent, element(s) selected from the group including Ti, Pb, Mn, As, Al, Pr, Tb, and Ce. In addition, α, β, and γ satisfy 1.8 ≤ α ≤ 2.4, 1.8 ≤ β ≤ 2.2, and 1.8 ≤ γ ≤ 2.2.) when the first peak wavelength is denoted by λ1 (nm), whereas the second peak wavelength is denoted by λ2 (nm), conditions of 1100 (nm) ≤ λ1 + λ2 and λ2 - λ1 ≤ 60 (nm) are satisfied. a light emitting element having a peak wavelength in a wavelength range of 430 nm or more and 470 nm or less; a first fluorescent material which emits light with a first peak wavelength of 525 nm or more and 560 nm or less; a second fluorescent material which emits light with a second peak wavelength longer than the first peak wavelength; and a third fluorescent material which emits light with a third peak wavelength of 620 nm or more and 750 nm or less, the third peak wavelength longer than the second peak wavelength, wherein the first fluorescent material and the second fluorescent material has a composition of: MSi α O β N γ (However, M includes Eu, necessarily includes Sr or Ba, and may further include Ca, Mg, and Zn. Furthermore, M may contain, as an activator agent, element(s) selected from the group including Ti, Pb, Mn, As, Al, Pr, Tb, and Ce. In addition, α, β, and γ satisfy 1.8 ≤ α ≤ 2.4, 1.8 ≤ β ≤ 2.2, and 1.8 ≤ γ ≤ 2.2.) when the first peak wavelength is denoted by λ1 (nm), whereas the second peak wavelength is denoted by λ2 (nm), conditions of 1100 (nm) ≤ λ1 + λ2 and λ2 - λ1 ≤ 60 (nm) are satisfied.
An absorber comprising, a crosslinked polymer mainly composed of acrylic acid and having carboxyl groups thereof being at least partially neutralized as a water-absorbent resin powder, and an antibacterial cationic surfactant, wherein the antibacterial cationic surfactant is a compound neutralized with an acid having an acid dissociation constant pKa in water at 25 degrees centigrade in a range from 3.0 to 5.5.
Assembly constituting an acoustically absorbent material and comprising: - a first panel, - a second panel pierced with holes, - an intermediate panel pierced with through-holes and arranged between the first panel and the second panel, - a first honeycomb structure extending between the first panel and the intermediate panel and comprising first cages, - a second honeycomb structure extending between the second panel and the intermediate panel and comprising second cages, and - for the intermediate panel, and for each through-hole of said intermediate panel, a tube opening out at the two ends thereof, where one of the ends of said tube is fixed to said intermediate panel at said through-hole, and where the other end of said tube is accommodated inside a first cage. - a first panel, - a second panel pierced with holes, - an intermediate panel pierced with through-holes and arranged between the first panel and the second panel, - a first honeycomb structure extending between the first panel and the intermediate panel and comprising first cages, - a second honeycomb structure extending between the second panel and the intermediate panel and comprising second cages, and - for the intermediate panel, and for each through-hole of said intermediate panel, a tube opening out at the two ends thereof, where one of the ends of said tube is fixed to said intermediate panel at said through-hole, and where the other end of said tube is accommodated inside a first cage.
A post-and-beam construction, with a post on which two grooves for fixing sealing strips and a central groove for fastening means for fixing a pressure strip are provided on one side in order to fix filling elements at the edge of the post, wherein the central groove is designed as a drainage groove and at least one drainage piece is inserted on the central groove, which has a drainage channel directed away from the post, the central groove being undercut and having inwardly directed webs on which the drainage piece is held, wherein latching means are formed on the drainage piece, which can be latched on the central groove and the drainage piece being fixed in a clamping manner on the central groove, characterized in that the central groove has a projecting rib at the bottom of the groove and the drainage piece is fixed to the central groove by means of a foot element on which a drainage slope is formed which opens into the drainage channel, the foot element comprising two webs, which extend to the bottom of the groove and bear positively against the bottom of the groove, and from each web there extends outwardly in each case one latching web, which is of flexible design and engages behind one of the inwardly directed webs when the foot element is inserted.
In a computing system that replicates data assets at a source site to a target site, a method for replicating the data assets in a replication operation, the method comprising: accessing historical data about the data assets at the source site; characterized by generating a forecast indicating a replication load at the target site based on the historical data; switching a mode of the replication operation in accordance with the forecast when the forecast indicates; and replicating the data assets according to the mode. accessing historical data about the data assets at the source site; characterized by generating a forecast indicating a replication load at the target site based on the historical data; switching a mode of the replication operation in accordance with the forecast when the forecast indicates; and replicating the data assets according to the mode.
A communication device (5A, 5B) including a host OS (51A, 51B) operated on a hardware on which a first network interface (6A1, 6A2, 6B1, 6B2) for connection to a control network (31, 32) is implemented, wherein the communication device (5A, 5B) is connected to the control network (3; 31, 32), to which another communication device is also connected, via the first network interface (6A1, 6A2, 6B1, 6B2) and a second network interface (6A1, 6A2, 6B1, 6B2), wherein the host OS (51A, 51B) includes a virtualization unit (54A, 54B) which is configured to operate an application software, a real-time communication unit (52A, 52B) which is configured to transmit or to receive periodically communication packets in the control network (3; 31, 32), a self-diagnosis function unit (53A, 53B) which is configured to detect abnormality in the operating own device, and a redundant unit (53A, 53B) which is configured to switch the own device to the standby-state from the operating-state, based on the abnormality detection by the self-diagnosis function unit (53A, 53B), and wherein the virtualization unit (54A, 54B), the real-time communication unit (52A, 52B) and the redundant unit (53A, 53B) are configured to operate as independent processes. wherein the communication device (5A, 5B) is connected to the control network (3; 31, 32), to which another communication device is also connected, via the first network interface (6A1, 6A2, 6B1, 6B2) and a second network interface (6A1, 6A2, 6B1, 6B2), wherein the host OS (51A, 51B) includes a virtualization unit (54A, 54B) which is configured to operate an application software, a real-time communication unit (52A, 52B) which is configured to transmit or to receive periodically communication packets in the control network (3; 31, 32), a self-diagnosis function unit (53A, 53B) which is configured to detect abnormality in the operating own device, and a redundant unit (53A, 53B) which is configured to switch the own device to the standby-state from the operating-state, based on the abnormality detection by the self-diagnosis function unit (53A, 53B), and a virtualization unit (54A, 54B) which is configured to operate an application software, a real-time communication unit (52A, 52B) which is configured to transmit or to receive periodically communication packets in the control network (3; 31, 32), a self-diagnosis function unit (53A, 53B) which is configured to detect abnormality in the operating own device, and a redundant unit (53A, 53B) which is configured to switch the own device to the standby-state from the operating-state, based on the abnormality detection by the self-diagnosis function unit (53A, 53B), and wherein the virtualization unit (54A, 54B), the real-time communication unit (52A, 52B) and the redundant unit (53A, 53B) are configured to operate as independent processes.
A building block comprising a main body, a first coupling surface on a first side of the main body, a second coupling surface on a second side of the main body which is opposite facing to the first coupling surface, one peripheral wall having a peripheral surface or a plurality of peripheral wall having a plurality of peripheral surface extending between the first coupling surface and the second coupling surface and defining a lateral or peripheral boundary of the main body, one coupling connector or a plurality of coupling connectors on or defining the first coupling surface and defining a first coupling direction, one coupling connector or a plurality of coupling connectors on or defining the second coupling surface and defining a second coupling direction, and one peripheral connector or a plurality of peripheral connectors (176,178) formed on a peripheral wall; characterized in that:- the peripheral connector (176, 178) is a partial connector of an inter-block connector, the inter-block connector having a center axis defining a connection axis and a connection direction and having a transversal dimension which is measured in a direction orthogonal to the connection axis and passing through the center axis; wherein the partial connector being an axially split portion of the inter-block connector and comprising an axially extending split surface which defines a split plane, and the split surface extends along a splitting direction which is parallel to the connector axis of the inter-block connector; wherein the peripheral connector (176, 178) has an axial extent defined in the connection direction and a transversal extent defined in a direction orthogonal to the connection direction and orthogonal to the split surface or the split plane or orthogonal to the first coupling surface and/or the second coupling surface or orthogonal to the peripheral surface on which it is formed; wherein the coupling connector (172, 174) and the inter-block connector are compatible building block connectors having matching features of compatible mating feature dimensions; and wherein the transversal extent of the partial connector is a fraction of the transversal dimension of the inter-block connector or of the coupling connector, such that the partial connectors (176, 178) of two building blocks can be connected to the coupling connector (172, 174) of a single building block.
A first terminal device, comprising: a receiver, configured to receive a first message sent by a base station and relayed by a second terminal device, wherein the first message is a radio resource control, RRC, reconfiguration message and comprises access information required by the first terminal device to access the base station, or comprises the access information and resource information that is allocated by the base station, and the first terminal device is configured to communicate with the second terminal device by using a first communication link, wherein the first communication link is a device-to-device, D2D, link; a transmitter, configured to send a release message of the first communication link to the second terminal device based on the resource information when the first message comprises the access information and the resource information that is allocated by the base station, wherein the release message is used to indicate, to the second terminal device, to release the first communication link; and a processor, configured to release the first communication link after the receiver receives the first message, wherein the processor is further configured to establish a second communication link to the base station based on the access information after releasing the first communication link. a receiver, configured to receive a first message sent by a base station and relayed by a second terminal device, wherein the first message is a radio resource control, RRC, reconfiguration message and comprises access information required by the first terminal device to access the base station, or comprises the access information and resource information that is allocated by the base station, and the first terminal device is configured to communicate with the second terminal device by using a first communication link, wherein the first communication link is a device-to-device, D2D, link; a transmitter, configured to send a release message of the first communication link to the second terminal device based on the resource information when the first message comprises the access information and the resource information that is allocated by the base station, wherein the release message is used to indicate, to the second terminal device, to release the first communication link; and a processor, configured to release the first communication link after the receiver receives the first message, wherein the processor is further configured to establish a second communication link to the base station based on the access information after releasing the first communication link.
An air treatment system, comprising: an air treatment unit arranged to treat a first parameter of ambient air; a controller arranged to control operation of the air treatment unit; and a first sensor arranged to detect a value indicative of the first parameter, and to output sensor data indicative of the value to the controller; wherein the controller is arranged to determine whether the first sensor and the air treatment unit are co-located in a same ambient air space by controlling the air treatment unit to operate in a first mode and analyzing sensor data from the first sensor received during the first mode; wherein if the first sensor and the air treatment unit are determined to be co-located in the same ambient air space, the controller is arranged to control the air treatment unit to operate in a second mode based on sensor data from the first sensor, and characterized in that the air treatment unit comprises an air purifier arranged to filter surrounding ambient air to treat the first parameter of the ambient air; and if the first sensor and the air purifier are determined not to be co-located in the same ambient air space, the controller is arranged to control the air purifier to operate in a third mode that is independent of sensor data indicative of the first parameter. an air treatment unit arranged to treat a first parameter of ambient air; a controller arranged to control operation of the air treatment unit; and a first sensor arranged to detect a value indicative of the first parameter, and to output sensor data indicative of the value to the controller; wherein the controller is arranged to determine whether the first sensor and the air treatment unit are co-located in a same ambient air space by controlling the air treatment unit to operate in a first mode and analyzing sensor data from the first sensor received during the first mode; wherein if the first sensor and the air treatment unit are determined to be co-located in the same ambient air space, the controller is arranged to control the air treatment unit to operate in a second mode based on sensor data from the first sensor, and characterized in that the air treatment unit comprises an air purifier arranged to filter surrounding ambient air to treat the first parameter of the ambient air; and if the first sensor and the air purifier are determined not to be co-located in the same ambient air space, the controller is arranged to control the air purifier to operate in a third mode that is independent of sensor data indicative of the first parameter.