mhurhangee/ep-ind-claims huggingface dataset:
A process for the post-treatment of a zeolitic material having an MWW framework structure, the process comprising (i) providing a zeolitic material having an MWW framework structure, wherein the framework structure of the zeolitic material comprises X 2 O 3 and YO 2, wherein Y is a tetravalent element and X is a trivalent element and wherein the molar ratio X 2 O 3: YO 2 is greater than 0.02: 1; (ii) treating the zeolitic material provided in (i) with a liquid solvent system thereby obtaining a zeolitic material having a molar ratio X 2 O 3: YO 2 of at most 0.02: 1, and at least partially separating the zeolitic material from the liquid solvent system; (iii) treating the zeolitic material obtained from (ii) with a liquid aqueous system having a pH in the range of 5.5 to 8 and a temperature of at least 75 °C in a closed system under autogenous pressure; wherein the pH of the aqueous system used in (iii) is determined using a pH sensitive glass electrode. (i) providing a zeolitic material having an MWW framework structure, wherein the framework structure of the zeolitic material comprises X 2 O 3 and YO 2, wherein Y is a tetravalent element and X is a trivalent element and wherein the molar ratio X 2 O 3: YO 2 is greater than 0.02: 1; (ii) treating the zeolitic material provided in (i) with a liquid solvent system thereby obtaining a zeolitic material having a molar ratio X 2 O 3: YO 2 of at most 0.02: 1, and at least partially separating the zeolitic material from the liquid solvent system; (iii) treating the zeolitic material obtained from (ii) with a liquid aqueous system having a pH in the range of 5.5 to 8 and a temperature of at least 75 °C in a closed system under autogenous pressure;
An adapter (70, 70"', 70'"", 70""") for a power tool powered by a detachable battery pack, comprising: means for detachably connecting to only the power tool, a controller, at least one memory and/or storage device in communication with the controller, and at least one communication port configured or adapted to transmit electrical communications from the adapter controller to a controller located in the power tool and vice versa, wherein the adapter is configured or adapted such that, when a battery pack, which also includes a controller, is connected to the power tool, a communication path is established whereby the battery pack controller communicates with the adapter controller via the power tool controller. means for detachably connecting to only the power tool, a controller, at least one memory and/or storage device in communication with the controller, and at least one communication port configured or adapted to transmit electrical communications from the adapter controller to a controller located in the power tool and vice versa, wherein the adapter is configured or adapted such that, when a battery pack, which also includes a controller, is connected to the power tool, a communication path is established whereby the battery pack controller communicates with the adapter controller via the power tool controller.
Container treatment machine with a plurality of treatment positions (4a, 4b) for treating the containers arranged at these positions, configured as a filling machine for filling the containers with a liquid filling product, wherein the treatment positions (4a, 4b), provided at a transport element, namely at a rotor, and configured as treatment blocks (5, 5a, 5b), comprise the function elements necessary for the respective treatment, at least the function elements (6, 7, 7.1) for a controlled relative movement between the treatment blocks (5, 5a, 5b) and the containers, and for the control of liquid paths and/or gas paths and/or vapour paths (14, 20) for liquid and/or gaseous and/or vaporous treatment medium, and for the monitoring and/or controlling of the treatment cycle and/or actuators or actuator drives, wherein the treatment blocks (5, 5a, 5b) form in each case at least two treatment positions (4a, 4b), and wherein at least one function element necessary for the treatment of the containers is provided in common for all the treatment positions (4, 4a) allocated in each case to a treatment block (5, 5a, 5b), and wherein, at the treatment blocks (5, 5a, 5b), for each treatment position (4a, 4b) forming a filling location, at least one filling product opening is formed of a liquid channel which comprises at least one liquid valve, wherein the controlled liquid channel is formed in the treatment block (5, 5a, 5b), characterised in that a measuring system is provided for determining the filling height and/or filling product quantity and/or the filling product volume in the respective container, in the form of a probe (16, 16a) and, if appropriate, also a flow meter, wherein the probe (16, 16a) and, if appropriate, the flow meter, are provided separately for each treatment position (4a, 4b), and in that at least one actuator or actuator drive is provided for the probe (16, 16a) monitoring and/or controlling the containers in common for all the treatment positions (4a, 4b) of each treatment block (5, 5a, 5b).
A multilayer self-adhesive fouling release coating composition comprising: (i) an optional removable underlying liner; (ii) an adhesive layer, applied over and to the optional underlying liner (i) when present; (iii)a synthetic material layer applied over and to the adhesive layer (ii); (iv)optionally, an intermediate silicone tie coat which is a one component silicone system, a two components silicone system or a three components silicone system, the two and three components silicone systems being curable by an addition-type or condensation-type curing system, applied over and to the synthetic material layer (iii); (v) a silicone fouling release top coat comprising a silicone resin and one, two or more fouling release agents which are selected from the group comprising silicone oil, liquid paraffin, surfactant wax, petrolatum, animal fats and fatty acid, applied over and to the synthetic material layer (iii), or, when present, over and to the intermediate silicone tie coat (iv); and optionally (vi)a removable polymeric film applied over and to the fouling release top coat (v), characterized in that the synthetic material layer (iii) comprises a polypropylene-based elastomer selected from the group comprising no-oriented polypropylene, bi-oriented polypropylene and blow propylene, or any combination thereof, which synthetic material layer (iii) is treated on one or both of its sides using a corona treatment or a plasma treatment. (i) an optional removable underlying liner; (ii) an adhesive layer, applied over and to the optional underlying liner (i) when present; (iii)a synthetic material layer applied over and to the adhesive layer (ii); (iv)optionally, an intermediate silicone tie coat which is a one component silicone system, a two components silicone system or a three components silicone system, the two and three components silicone systems being curable by an addition-type or condensation-type curing system, applied over and to the synthetic material layer (iii); (v) a silicone fouling release top coat comprising a silicone resin and one, two or more fouling release agents which are selected from the group comprising silicone oil, liquid paraffin, surfactant wax, petrolatum, animal fats and fatty acid, applied over and to the synthetic material layer (iii), or, when present, over and to the intermediate silicone tie coat (iv); and optionally (vi)a removable polymeric film applied over and to the fouling release top coat (v),
A method for wireless communication by a user equipment, UE, comprising: transmitting a first portion of an uplink signal to an access network, AN, wherein the first portion of the uplink signal comprises a random access channel, RACH, sequence; receiving a first acknowledgment responsive to the first portion; and transmitting the first portion and a second portion of the uplink signal to the AN at a same initial transmit power level used to successfully transmit the first portion of the uplink signal, in response to receiving the first acknowledgement, wherein the second portion of the uplink signal comprises an uplink signal message given by a chirp payload. transmitting a first portion of an uplink signal to an access network, AN, wherein the first portion of the uplink signal comprises a random access channel, RACH, sequence; receiving a first acknowledgment responsive to the first portion; and transmitting the first portion and a second portion of the uplink signal to the AN at a same initial transmit power level used to successfully transmit the first portion of the uplink signal, in response to receiving the first acknowledgement, wherein the second portion of the uplink signal comprises an uplink signal message given by a chirp payload.
A contact member, comprising: a curved portion which protrudes toward a first side, the curved portion being elastically deformable toward a second side; and a plurality of protrusions (13a, 13b, 13c) formed to protrude toward the second side from the curved portion, the protrusions (13a, 13b, 13c) are positioned at equal distances from the center of the curved portion, center points (Oa, Ob, Oc) of the plurality of protrusions (13a, 13b, 13c) are disposed at equal angles with respect to the center of the curved portion, and the number of the protrusions (13a, 13b, 13c) is 3, and a center point (Oa, Ob, Oc) of one of the protrusions (13a, 13b, 13c) is positioned on a horizontal center line (Oy)orthogonal to the vertical center line (Ox) through the center of the curved portion, characterized in that all the protrusions (13a, 13b, 13c) are formed at positions that do not overlap with a vertical center line (Ox) extending in parallel to a rolling direction through a center of the curved portion. a curved portion which protrudes toward a first side, the curved portion being elastically deformable toward a second side; and a plurality of protrusions (13a, 13b, 13c) formed to protrude toward the second side from the curved portion,
A method for a first wireless transmit/receive unit, WTRU, (102a, 102b, 102c, 102d) for performing device-to-device, D2D, communication directly with a second WTRU (102a, 102b, 102c, 102d), the method comprising: determining, outside of network coverage, a base pattern (202, 204) te based on at least a transmission configuration, wherein the base pattern is determined from a base pattern family comprising one or more base patterns having a pre-defined duration and one or more transmission opportunities, and wherein the base pattern family is defined by a number of the one or more transmission opportunities; and transmitting one or more data packets to the second WTRU in the one or more transmission opportunities of the determined base pattern. determining, outside of network coverage, a base pattern (202, 204) te based on at least a transmission configuration, wherein the base pattern is determined from a base pattern family comprising one or more base patterns having a pre-defined duration and one or more transmission opportunities, and wherein the base pattern family is defined by a number of the one or more transmission opportunities; and transmitting one or more data packets to the second WTRU in the one or more transmission opportunities of the determined base pattern.
A distribution system for distributing digital information comprising a server and a computing device, the server and computing device each comprising a communication module for communication between the server and the computing device, the server comprising an encryption module for encrypting the digital information with a cryptographic encryption key, the computing device comprising a decryption module for decrypting the encrypted digital information with a cryptographic decryption key corresponding to the encryption key, the system comprises a cryptographic key module for obtaining the encryption and decryption key, wherein - the computing device comprises an integrated physically unclonable function, the computing device being configured for obtaining a first response from the physically unclonable function before a security breach has occurred that revealed data and/or programming code of the computing device, - the system comprises an enrollment module for determining helper data from the decryption key and the first response obtained from the physically unclonable function to enable later reconstruction, after the security breach has occurred, of the decryption key from the helper data and a second response obtained from the physically unclonable function, - the computing device comprises a reconstruction module for reconstructing the decryption key from the second response and the helper data, and - the server is configured for encrypting the digital information with the cryptographic encryption key after the security breach has occurred, - wherein the computing device does not store the encryption key and does not store the decryption key before the computing device receives the digital information encrypted with the encryption key. - the computing device comprises an integrated physically unclonable function, the computing device being configured for obtaining a first response from the physically unclonable function before a security breach has occurred that revealed data and/or programming code of the computing device, - the system comprises an enrollment module for determining helper data from the decryption key and the first response obtained from the physically unclonable function to enable later reconstruction, after the security breach has occurred, of the decryption key from the helper data and a second response obtained from the physically unclonable function, - the computing device comprises a reconstruction module for reconstructing the decryption key from the second response and the helper data, and - the server is configured for encrypting the digital information with the cryptographic encryption key after the security breach has occurred, - wherein the computing device does not store the encryption key and does not store the decryption key before the computing device receives the digital information encrypted with the encryption key.
Test robot for testing slot wedges which are provided on the outer circumference of a rotor of a generator, which rotor is surrounded by a stator, comprising a chassis which accommodates a drive system, a position capture device, a controller which controls the drive system on the basis of data captured by the position capture device, magnets which are fitted to the chassis and are positioned and designed in such a manner that they keep the chassis adhering to the rotor, at least one ultrasonic test head which is arranged on the chassis, is freely accessible from the underside of the chassis pointing in the direction of the rotor and can be moved up and down, and at least one couplant application device which is provided on the chassis and is assigned to the ultrasonic test head, wherein the drive system has three or four wheels which are rotatably held on the chassis and are intended to roll on the rotor, wherein each wheel can be driven in a rotational manner via a stepping motor and can be steered via a servomotor. a chassis which accommodates a drive system, a position capture device, a controller which controls the drive system on the basis of data captured by the position capture device, magnets which are fitted to the chassis and are positioned and designed in such a manner that they keep the chassis adhering to the rotor, at least one ultrasonic test head which is arranged on the chassis, is freely accessible from the underside of the chassis pointing in the direction of the rotor and can be moved up and down, and at least one couplant application device which is provided on the chassis and is assigned to the ultrasonic test head, wherein the drive system has three or four wheels which are rotatably held on the chassis and are intended to roll on the rotor, wherein each wheel can be driven in a rotational manner via a stepping motor and can be steered via a servomotor.
Base floor of a building functioning as a substructure of a building, the base floor comprising a compacted and levelled soil layer, a hard thermal insulation layer and a load bearing slab, wherein the hard thermal insulation layer is formed on the surface of the compacted and levelled soil layer and wherein the load bearing slab is formed on the hard thermal insulation layer, wherein outer walls of the building are to be fabricated onto end edges (18a, 18b) and side edges (20a,20b) of the load bearing slab, wherein the said slab comprises a thin sheet structure withstanding compression stress and comprising air flow paths parallel to its lower and upper surfaces, wherein the lower surface of the thin sheet structure forms a first surface positioned against the hard thermal insulation layer and wherein the upper surface of the thin sheet structure forms a second surface positioned at a distance from the first surface.
An energy management system comprising an energy storage, a control system and a power converter supplying power to a load, characterized in that - said energy storage is arranged in individual energy units and said power converter is provided with a switching system for controlling the voltage, current or power over the load; - said switching system comprises multiple parallel-connected power switches and at least one of said power switches is connected to its assigned energy unit; and - said control system comprises individual control units, each being configured to monitor the status of a dedicated energy unit and produce an individual enable signal indicative of said status, each power switch is configured to be controlled by an AND-gate with at least two input signals, including the individual enable signal and a first control signal, wherein the control system is configured to connect multiple energy units in parallel to the load, and wherein two or more energy units are always connected in parallel to the load via the respective power switches. - said energy storage is arranged in individual energy units and said power converter is provided with a switching system for controlling the voltage, current or power over the load; - said switching system comprises multiple parallel-connected power switches and at least one of said power switches is connected to its assigned energy unit; and - said control system comprises individual control units, each being configured to monitor the status of a dedicated energy unit and produce an individual enable signal indicative of said status, each power switch is configured to be controlled by an AND-gate with at least two input signals, including the individual enable signal and a first control signal, wherein the control system is configured to connect multiple energy units in parallel to the load, and wherein two or more energy units are always connected in parallel to the load via the respective power switches.
A solid oxide fuel cell comprising: an anode; a cathode active layer containing a perovskite complex oxide expressed by the general formula ABO 3 as a principal component, the perovskite complex oxide including at least one of La or Sr at the A site; and a solid electrolyte layer disposed between the anode and the cathode active layer; wherein the cathode active layer includes a plurality of micro-cracks in an inner region separated respectively from a surface on the solid electrolyte layer side and a surface on an opposite side to the solid electrolyte layer by a distance of at least 1 micrometer; an average width of each of the plurality of micro-cracks is at least 1 nanometer to no more than 100 nanometers, and an average length of each of the plurality of micro-cracks is at least 100 nanometers to no more than 1000 nanometers, characterized in that: the plurality of micro-cracks include at least one of: a micro-crack which is formed along a grain boundary between particles that configure the cathode active layer, a micro-crack which is formed to split a particle that configures the cathode active layer, and a micro-crack which is formed to connect a portion that is formed along a grain boundary between particles that configure the cathode active layer and a portion that is formed to split a particle that configures the cathode active layer. an anode; a cathode active layer containing a perovskite complex oxide expressed by the general formula ABO 3 as a principal component, the perovskite complex oxide including at least one of La or Sr at the A site; and a solid electrolyte layer disposed between the anode and the cathode active layer; wherein the cathode active layer includes a plurality of micro-cracks in an inner region separated respectively from a surface on the solid electrolyte layer side and a surface on an opposite side to the solid electrolyte layer by a distance of at least 1 micrometer; an average width of each of the plurality of micro-cracks is at least 1 nanometer to no more than 100 nanometers, and an average length of each of the plurality of micro-cracks is at least 100 nanometers to no more than 1000 nanometers, the plurality of micro-cracks include at least one of: a micro-crack which is formed along a grain boundary between particles that configure the cathode active layer, a micro-crack which is formed to split a particle that configures the cathode active layer, and a micro-crack which is formed to connect a portion that is formed along a grain boundary between particles that configure the cathode active layer and a portion that is formed to split a particle that configures the cathode active layer.
Positioning device of portal design, having two parallel linear guides (FX1, FX2) with integrated linear drives, which each hold an X-carriage (LX1, LX2) in a manner movable in an X direction, and having a crossbeam connected to the two X-carriages (LX1, LX2), which, by, means of an integrated linear drive, holds a Y-carriage in a manner movable in a Y direction perpendicular to the X direction, and having a tool holder, which is guided on the Y-carriage in a Z direction perpendicular to the X and Y direction and carries a tool for machining a workpiece arranged in an X-Y plane, wherein the tool is arranged next to the crossbeam in a manner offset in the X direction, characterized by a force frame, arranged in the Z direction above the tool, which extends parallel to the crossbeam and transmits a process force, acting on the tool, in the Z direction to the X-carriage (LX1, LX2), and by an electromagnet, arranged between the force frame and the tool holder, which generates the process force in the switched-on state.