mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communicating, comprising: receiving wireless packets at a first device, over a primary data channel, according to an interval; receiving at the first device, over the primary data channel, a request to establish a secondary data channel, wherein the request to establish the secondary data channel is from a second device and includes secondary connection parameters, wherein the secondary connection parameters include an offset and a sub-interval, wherein the offset is relative to an event on the primary data channel, and the sub-interval is relative to the interval; in response to the request from the second device, sending from the first device to the second device an acknowledgement message; and receiving wireless packets over a secondary data channel, at the first device from the second device, in response to the acknowledgment message and in accordance with the secondary connection parameters. receiving wireless packets at a first device, over a primary data channel, according to an interval; receiving at the first device, over the primary data channel, a request to establish a secondary data channel, wherein the request to establish the secondary data channel is from a second device and includes secondary connection parameters, wherein the secondary connection parameters include an offset and a sub-interval, wherein the offset is relative to an event on the primary data channel, and the sub-interval is relative to the interval; in response to the request from the second device, sending from the first device to the second device an acknowledgement message; and receiving wireless packets over a secondary data channel, at the first device from the second device, in response to the acknowledgment message and in accordance with the secondary connection parameters.
A method for regulating user data traffic in a wireless network comprising a wireless communication device, WCD,, the method performed by the WCD comprises: receiving (204, 502) admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a radio access network, RAN, node; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control (302, 506) for regulating said UL transmission of user data based on the received AI. receiving (204, 502) admittance information, AI, indicating a threshold value to regulate the uplink traffic representing at least one condition of: a maximum number of small data transmissions or packets or messages per unit of time, under which the WCD is admitted to transmit user data to a radio access network, RAN, node; initiating the uplink, UL, transmission of user data via the wireless network; performing admission control (302, 506) for regulating said UL transmission of user data based on the received AI.
A lockable container, comprising: a first housing; a second housing pivotally and movably coupled with the first housing, at least one of the first and second housing (102, 104) comprising a sacrificial material that breaks away, deflects and/or deforms under physical attack; a latch; a lock coupled with the latch; an actuator coupled with the latch and configured to move the latch when the lock is unlocked; a liner positioned within an interior of and coupled with the first housing (102, 104), the liner configured to store an object; wherein the liner further comprises a base, and a first latch sheer plate coupled with the base and containing a latch opening; and a second latch sheer plate positioned within the interior of and coupled with the second housing, the second latch sheer plate having another latch opening therein and being configured to overlap the first sheer plate when the second housing is in a closed position; wherein, in a closed and locked position, the latch protrudes through the first and second latch openings (156,117);wherein the latch, actuator and lock are positioned in the second housing; and wherein the liner comprises one of a metal, a metal alloy, and/or other types of attack-resistant material. a first housing; a second housing pivotally and movably coupled with the first housing, at least one of the first and second housing (102, 104) comprising a sacrificial material that breaks away, deflects and/or deforms under physical attack; a latch; a lock coupled with the latch; an actuator coupled with the latch and configured to move the latch when the lock is unlocked; a liner positioned within an interior of and coupled with the first housing (102, 104), the liner configured to store an object; wherein the liner further comprises a base, and a first latch sheer plate coupled with the base and containing a latch opening; and a second latch sheer plate positioned within the interior of and coupled with the second housing, the second latch sheer plate having another latch opening therein and being configured to overlap the first sheer plate when the second housing is in a closed position; wherein, in a closed and locked position, the latch protrudes through the first and second latch openings (156,117);wherein the latch, actuator and lock are positioned in the second housing; and wherein the liner comprises one of a metal, a metal alloy, and/or other types of attack-resistant material.
A method for time-saving production of a galvanised steel sheet comprising a forming aid layer of at least one inorganic functional layer, comprising the steps of: - producing an aqueous, silane-free solution or suspension of at least one carbonate supplier or an aqueous, silane-free solution or suspension of at least one carbonate supplier and at least one hydroxide supplier, wherein the at least one carbonate supplier is selected from ammonium hydrocarbonate, ammonium carbonate, alkali metal hydrocarbonates, alkaline metal carbonates and alkaline metal carboxylates, and the at least one hydroxide supplier is selected from alkaline metal hydroxides, alkaline metal oxides, alkaline metal alcoholates, magnesium hydroxides and magnesium oxide, wherein a concentration of the at least one carbonate supplier lies in a range of between 1 and 5% by weight, based on the total weight of the solution or suspension, - setting the pH value of the solution or suspension in a range of between 8 and 12, - applying the aqueous solution or suspension to at least one side of the galvanised steel sheet and generating a wet film comprising a predetermined thickness, which is set as a function of the concentration of the treatment solution of between 1 and 20 μm, - drying the wet film without carrying out a rinsing step by maintaining a layer weight of a dry substance of between 25 and 200 mg/m 2 surface, wherein the layer weight of the dry substance is determined by the thickness of the wet film and the concentration, and wherein a conversion layer of zinc and zinc salts, which are at least partially carbonates, is obtained as inorganic functional layer. - producing an aqueous, silane-free solution or suspension of at least one carbonate supplier or an aqueous, silane-free solution or suspension of at least one carbonate supplier and at least one hydroxide supplier, wherein the at least one carbonate supplier is selected from ammonium hydrocarbonate, ammonium carbonate, alkali metal hydrocarbonates, alkaline metal carbonates and alkaline metal carboxylates, and the at least one hydroxide supplier is selected from alkaline metal hydroxides, alkaline metal oxides, alkaline metal alcoholates, magnesium hydroxides and magnesium oxide, wherein a concentration of the at least one carbonate supplier lies in a range of between 1 and 5% by weight, based on the total weight of the solution or suspension, - setting the pH value of the solution or suspension in a range of between 8 and 12, - applying the aqueous solution or suspension to at least one side of the galvanised steel sheet and generating a wet film comprising a predetermined thickness, which is set as a function of the concentration of the treatment solution of between 1 and 20 μm, - drying the wet film without carrying out a rinsing step by maintaining a layer weight of a dry substance of between 25 and 200 mg/m 2 surface, wherein the layer weight of the dry substance is determined by the thickness of the wet film and the concentration, and wherein a conversion layer of zinc and zinc salts, which are at least partially carbonates, is obtained as inorganic functional layer.
A process for the preparation of graphene or graphene-like fragments of a layered material selected from layered transition metal oxides, MoS 2, WS 2, MoSe 2, MoTe 2, TaSe 2, NbSe 2, NiTe 2, BN, Bi 2 Te 3 and Bi 2 Se 3, said process comprising the step of mixing and grinding graphite or said layered material with at least one ionic liquid, wherein the grinding of graphite occurs for a time period of more than 30 minutes; and wherein the process does not comprise a sonication step. wherein the grinding of graphite occurs for a time period of more than 30 minutes; and wherein the process does not comprise a sonication step.
Method of operating a wind turbine comprising a plurality of blades (1, 2, 3), each of the blades being rotatable along its longitudinal axis using a pitch mechanism, and each of the blades (1, 2, 3) comprising one or more movable trailing edge surfaces, the method comprising at a first moment in time predicting a high load for one or more of the blades at a second moment in time, before the second moment in time, actuating on one or more of the movable trailing edge surfaces of these blades such that the trailing edge surfaces assume a position wherein they have a wider range of control to counteract the predicted high loads, and simultaneously pitching the blades such as not to negatively affect the operation of the wind turbine, and at the second moment in time, actuating the one or more movable trailing edge surfaces of the at least one or more blades to counteract the high loads.
A method for generating control data (BSD, PSD) for a device for additive manufacturing of a manufactured product in a manufacturing process in which build-up material is built up and selectively solidified, wherein, for solidifying on a build field, irradiating of the build-up material with at least one energy beam takes place, wherein an impingement surface of the energy beam on the build field is moved in order to melt the build-up material in a target area (Γ Z) in and around the impingement surface, wherein for generating the control data (BSD, PSD) for at least one irradiation mode, optimization criteria and/or secondary and/or boundary conditions relating to a local target temperature distribution in the target area (Γ Z) of the build-up material are defined, at which temperature distribution a melting of the build-up material within the target area (Γ Z) is effected as heat conduction welding and on the basis of the optimization criteria and/or secondary and/or boundary conditions within the scope of an optimization process, at least one optimized intensity profile of the energy beam is determined, wherein the optimized intensity profile of the energy beam at the impingement surface on the build field is substantially non-rotationally symmetric with respect to a beam axis running coaxially to the direction of incidence of the energy beam, and wherein the control data (BSD, PSD) are generated such that upon activating the device for additive manufacturing in the irradiation mode, the irradiation of the build-up material with an energy beam having substantially the determined optimized intensity profile occurs. wherein for generating the control data (BSD, PSD) for at least one irradiation mode, optimization criteria and/or secondary and/or boundary conditions relating to a local target temperature distribution in the target area (Γ Z) of the build-up material are defined, at which temperature distribution a melting of the build-up material within the target area (Γ Z) is effected as heat conduction welding and on the basis of the optimization criteria and/or secondary and/or boundary conditions within the scope of an optimization process, at least one optimized intensity profile of the energy beam is determined, wherein the optimized intensity profile of the energy beam at the impingement surface on the build field is substantially non-rotationally symmetric with respect to a beam axis running coaxially to the direction of incidence of the energy beam, and wherein the control data (BSD, PSD) are generated such that upon activating the device for additive manufacturing in the irradiation mode, the irradiation of the build-up material with an energy beam having substantially the determined optimized intensity profile occurs.
An exchangeable separation insert for a centrifugal separator, for separating a fluid mixture, comprising a first and a second stationary portion, a rotor casing enclosing a separation space in which a stack of separation discs is arranged to rotate around an axis of rotation, said rotor casing being axially arranged between said first and said second stationary portion; a feed inlet for supply of the fluid mixture to be separated to said separation space, a light phase outlet for discharge of a separated phase of a first density, and a heavy phase outlet for discharge of a separated phase of a second density higher than said first density, wherein two of said feed inlet, light phase outlet and heavy phase outlet are arranged at a first axial end of said rotor casing; a first seal assembly sealing and connecting said two of said feed inlet, light phase outlet and heavy phase outlet to corresponding inlet conduit and/or outlet conduits in said first stationary portion, wherein said first seal assembly comprises a rotatable part attached to said rotor casing and a stationary part attached to said stationary portion; wherein said rotatable part and said stationary part are axially aligned and seal against each other; wherein a first of said two of said feed inlet, light phase outlet and heavy phase outlet is arranged axially at the axis of rotation and a second of said two of said feed inlet, light phase outlet and heavy phase outlet is arranged axially outside of said first of said two of said feed inlet, light phase outlet and heavy phase outlet in such a manner that both said first and second of said two of said feed inlet, light phase outlet and heavy phase outlet are led through said rotatable part and said corresponding inlet conduit and/or outlet conduits are led through said stationary part of said first seal assembly.
Shaped body which contains a catalytically active material and which comprises a catalytically active region and a porous coating which is present on the catalytically active region, wherein - at least 75% by weight of the catalytically active material of the shaped body are present in the catalytically active region and - the porous coating and the catalytically active region satisfy the following condition: Θ PB 1.5 × d PB × d KB + 150 nm / Θ KB 1.5 × d KB × d PB + 150 nm < 1.0 where Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region. - at least 75% by weight of the catalytically active material of the shaped body are present in the catalytically active region and - the porous coating and the catalytically active region satisfy the following condition: Θ PB 1.5 × d PB × d KB + 150 nm / Θ KB 1.5 × d KB × d PB + 150 nm < 1.0 where Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region. Θ PB is the porosity of the porous coating; d PB is the average pore diameter, in nm, of the porous coating; Θ KB is the porosity of the catalytically active region; d KB is the average pore diameter, in nm, of the catalytically active region.
A rotor of an electric machine designed as an internal rotor, wherein the rotor has: a rotational axis, which extends in an axial direction and about which the rotor is rotatable, an outer lateral surface which delimits the rotor, a pole arrangement (2, 3, 4), and an adjusting mechanism for the pole arrangement (2, 3, 4), which is designed such that the spacing between the outer lateral surface of the rotor and a centre of gravity of the at least one pole arrangement (2, 3, 4) is adjustable, whereby the pole arrangement (2, 3, 4) is movable inwards towards the rotational axis of the rotor or outwards away from the rotational axis of the rotor, characterised in that the adjusting mechanism has a force transmission device and an adjusting device that is activatable by a force acting by the force transmission device and which moves the pole arrangement (2, 3, 4), the rotor has a lock for the pole arrangement (2, 3, 4), and the lock has: a first adjusting position in which the lock engages in the pole arrangement (2, 3, 4) and which locks the pole arrangement (2, 3, 4) at a first distance from the rotational axis; and a second adjusting position in which the pole arrangement (2, 3, 4) is pivotable about a pivot point and in which the pole arrangement (2, 3, 4) can be locked at a second distance from the rotational axis. a rotational axis, which extends in an axial direction and about which the rotor is rotatable, an outer lateral surface which delimits the rotor, a pole arrangement (2, 3, 4), and an adjusting mechanism for the pole arrangement (2, 3, 4), which is designed such that the spacing between the outer lateral surface of the rotor and a centre of gravity of the at least one pole arrangement (2, 3, 4) is adjustable, whereby the pole arrangement (2, 3, 4) is movable inwards towards the rotational axis of the rotor or outwards away from the rotational axis of the rotor, characterised in that the adjusting mechanism has a force transmission device and an adjusting device that is activatable by a force acting by the force transmission device and which moves the pole arrangement (2, 3, 4), the rotor has a lock for the pole arrangement (2, 3, 4), and the lock has: a first adjusting position in which the lock engages in the pole arrangement (2, 3, 4) and which locks the pole arrangement (2, 3, 4) at a first distance from the rotational axis; and a second adjusting position in which the pole arrangement (2, 3, 4) is pivotable about a pivot point and in which the pole arrangement (2, 3, 4) can be locked at a second distance from the rotational axis. a first adjusting position in which the lock engages in the pole arrangement (2, 3, 4) and which locks the pole arrangement (2, 3, 4) at a first distance from the rotational axis; and a second adjusting position in which the pole arrangement (2, 3, 4) is pivotable about a pivot point and in which the pole arrangement (2, 3, 4) can be locked at a second distance from the rotational axis.
Single serve capsule for preparing a beverage with the aid of a beverage preparation machine, the single serve capsule having a base element with a cavity for receiving a beverage raw material, and a capsule lid which closes the cavity; the base element comprising a capsule base, an encircling flange and a capsule wall which extends from the capsule base to the encircling flange; the capsule lid being fastened to the flange; the single serve capsule having in particular a feature which is optically detectable by a detector of the beverage preparation machine, characterized in that the flange is configured to be optically transparent, and in that the optically detectable feature is disposed in the region of the optically transparent flange.
A method for system information, SI, management, the method comprising: maintaining, by a hypercell controller, global SI applicable to an entirety of a hypercell controlled by the hypercell controller and local SI associated with at least one distributed controller of the hypercell; generating, by the hypercell controller, a global local SI indicator, GLSII, indicating usage of the local SI in the hypercell; and broadcasting, by the hypercell controller, the global SI including the GLSII, the method being characterized in that: the method further comprises: receiving, by the hypercell controller, updated local SI from the at least one distributed controller of the hypercell; encoding, by the hypercell controller, the updated local SI, wherein encoding the updated local SI comprises generating a radio resource control, RRC, message including the updated local SI; and transmitting, by the hypercell controller, the encoded local SI to the at least one distributed controller of the hypercell, from which it has received the updated local SI. maintaining, by a hypercell controller, global SI applicable to an entirety of a hypercell controlled by the hypercell controller and local SI associated with at least one distributed controller of the hypercell; generating, by the hypercell controller, a global local SI indicator, GLSII, indicating usage of the local SI in the hypercell; and broadcasting, by the hypercell controller, the global SI including the GLSII, the method being characterized in that: the method further comprises: receiving, by the hypercell controller, updated local SI from the at least one distributed controller of the hypercell; encoding, by the hypercell controller, the updated local SI, wherein encoding the updated local SI comprises generating a radio resource control, RRC, message including the updated local SI; and transmitting, by the hypercell controller, the encoded local SI to the at least one distributed controller of the hypercell, from which it has received the updated local SI. receiving, by the hypercell controller, updated local SI from the at least one distributed controller of the hypercell; encoding, by the hypercell controller, the updated local SI, wherein encoding the updated local SI comprises generating a radio resource control, RRC, message including the updated local SI; and transmitting, by the hypercell controller, the encoded local SI to the at least one distributed controller of the hypercell, from which it has received the updated local SI.