mhurhangee/patent-ind-claim-en huggingface dataset:
Method for transferring material comprising the steps of a. Docking a receiving device to an outlet opening of a transfer chamber by means of a first docking unit having a passage opening , b. Positioning a dispensing device at an inlet opening of the transfer chamber such that material can be transferred into the transfer chamber through the inlet opening , c. Dispensing the materials contained in the dispensing device through the inlet opening of the transfer chamber and transferring said materials through the transfer chamber and the passage opening of the docking unit into the receiving device , d. Closing the receiving device after transfer of the material at a portion of the receiving device , which is located between the transferred material and the docking unit, and removing the receiving device from the docking unit , characterised in that the first and a second docking unit (3, 3.1) assume the following positions in relation to the transfer chamber : a. a first position in which the first docking unit hermetically docks with an opening wall defining the outlet opening, b. a second position in which the first docking unit and the second docking unit (3.1) simultaneously and hermetically dock with the opening wall , and c. a third position in which the first docking unit is released into an interior space of the transfer chamber , and the second docking unit (3.1) occupies the first position, wherein the first and the second docking unit (3, 3.1) can be translationally displaced along the opening wall while maintaining the hermetic connection, such that in the first, in the second and in the third position, as well as during a change of position, a continuous hermetic connection is maintained between the outlet opening and the first and/or the second docking unit (3, 3.1). a. Docking a receiving device to an outlet opening of a transfer chamber by means of a first docking unit having a passage opening , b. Positioning a dispensing device at an inlet opening of the transfer chamber such that material can be transferred into the transfer chamber through the inlet opening , c. Dispensing the materials contained in the dispensing device through the inlet opening of the transfer chamber and transferring said materials through the transfer chamber and the passage opening of the docking unit into the receiving device , d. Closing the receiving device after transfer of the material at a portion of the receiving device , which is located between the transferred material and the docking unit, and removing the receiving device from the docking unit , a. a first position in which the first docking unit hermetically docks with an opening wall defining the outlet opening, b. a second position in which the first docking unit and the second docking unit (3.1) simultaneously and hermetically dock with the opening wall , and c. a third position in which the first docking unit is released into an interior space of the transfer chamber , and the second docking unit (3.1) occupies the first position,
A contact lens , comprising: a transparent substrate formed to cover at least a portion of an iris of an eye; and a circuit comprising: one or more light sensors disposed directly on or within the transparent substrate and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors , wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry , operably coupled to the one or more light sensors , configured to output information indicative of the pattern associated with the iris; and a power component , operably coupled to the readout circuitry , configured to supply power to the readout circuitry . a transparent substrate formed to cover at least a portion of an iris of an eye; and a circuit comprising: one or more light sensors disposed directly on or within the transparent substrate and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors , wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry , operably coupled to the one or more light sensors , configured to output information indicative of the pattern associated with the iris; and one or more light sensors disposed directly on or within the transparent substrate and configured to detect light reflected from, and thus filtered through, the iris and incident on the one or more light sensors , wherein the one or more light sensors are configured to detect image data from the reflected light, the image data being indicative of a pattern associated with the iris; readout circuitry , operably coupled to the one or more light sensors , configured to output information indicative of the pattern associated with the iris; and a power component , operably coupled to the readout circuitry , configured to supply power to the readout circuitry .
A device comprising a running roller for a conveyor system, which roller can be rotated about a rotational axis , and a suspension system which supports the running roller and has a fork and an axle pin which penetrates the running roller and is supported by the fork , characterized in that the suspension system further comprises a first and a second clip part which each have a recess , into which a respective end section of the axle pin protrudes and which, for connection to the fork , each can be pushed in a push-in direction which lies at a right angle with respect to the rotational axis into a respective push-in track of the fork and can be snapped together with the fork .
A method for manufacturing a blade in composite material having an added metal leading edge for gas turbine aeroengine, the method comprising: - producing a blade body in composite material comprising in longitudinal direction (D L ) a blade root part , a shank part and an airfoil body part , the airfoil body part extending in longitudinal direction between the shank part and an airfoil body tip and in transverse direction (D T ) between a foremost edge portion and a rear edge portion , - manufacturing, via additive manufacturing, a leading edge extending in the longitudinal direction between a lower end intended to be present at the shank part of the blade body in composite material and an upper end intended to be present at the tip of the airfoil body part , - bonding the manufactured leading edge onto the foremost edge portion of the airfoil body of the blade body in composite material , characterized in that the leading edge comprises a first portion in a first metal material and extending from the lower end of the leading edge as far as an intermediate position located between the lower end and upper end of the leading edge, and a second portion in a second metal material extending from the intermediate position as far as the upper end of said leading edge, the second metal material having greater density than the density of the first metal material. - producing a blade body in composite material comprising in longitudinal direction (D L ) a blade root part , a shank part and an airfoil body part , the airfoil body part extending in longitudinal direction between the shank part and an airfoil body tip and in transverse direction (D T ) between a foremost edge portion and a rear edge portion , - manufacturing, via additive manufacturing, a leading edge extending in the longitudinal direction between a lower end intended to be present at the shank part of the blade body in composite material and an upper end intended to be present at the tip of the airfoil body part , - bonding the manufactured leading edge onto the foremost edge portion of the airfoil body of the blade body in composite material , characterized in that the leading edge comprises a first portion in a first metal material and extending from the lower end of the leading edge as far as an intermediate position located between the lower end and upper end of the leading edge, and a second portion in a second metal material extending from the intermediate position as far as the upper end of said leading edge, the second metal material having greater density than the density of the first metal material.
An Uninterruptible Power Supply, UPS, system comprising: a first input configured to be coupled to an Alternating Current, AC, power source, and configured to receive input AC power from the AC power source; a second input configured to be coupled to an energy storage device having a backup runtime capacity, and configured to receive input Direct Current, DC, power from the energy storage device; an output configured to provide output power derived from at least one of the input AC power or the input DC power; and a controller configured to operate the UPS system to: store a plurality of indications each indicating a number of times that the UPS system has regained access to the input AC power within a respective amount of time after the UPS system has stopped providing the output power; analyze the plurality of indications to determine an additional backup runtime capacity for reducing a number of load drops; determine a number of additional energy storage devices that provide the additional backup runtime capacity; and output the determined number of additional energy storage devices to add to attain the additional backup runtime capacity and reduce the number of load drops. a first input configured to be coupled to an Alternating Current, AC, power source, and configured to receive input AC power from the AC power source; a second input configured to be coupled to an energy storage device having a backup runtime capacity, and configured to receive input Direct Current, DC, power from the energy storage device; an output configured to provide output power derived from at least one of the input AC power or the input DC power; and a controller configured to operate the UPS system to: store a plurality of indications each indicating a number of times that the UPS system has regained access to the input AC power within a respective amount of time after the UPS system has stopped providing the output power; analyze the plurality of indications to determine an additional backup runtime capacity for reducing a number of load drops; determine a number of additional energy storage devices that provide the additional backup runtime capacity; and output the determined number of additional energy storage devices to add to attain the additional backup runtime capacity and reduce the number of load drops. store a plurality of indications each indicating a number of times that the UPS system has regained access to the input AC power within a respective amount of time after the UPS system has stopped providing the output power; analyze the plurality of indications to determine an additional backup runtime capacity for reducing a number of load drops; determine a number of additional energy storage devices that provide the additional backup runtime capacity; and output the determined number of additional energy storage devices to add to attain the additional backup runtime capacity and reduce the number of load drops.
A resource configuration apparatus , comprising: a controller configured to configure one or more resource sets corresponding to each group of a number of groups of control resource sets, and divide all control resource sets of a user equipment , UE, and the one or more resource sets corresponding to each group of control resource sets into a first predetermined number of groups; and a transmitter configured to transmit indication information indicating whether the resource sets in a group of the first predetermined number of groups are available for data mapping, the indication information comprising a predetermined number of bits, wherein, one bit at a predetermined position in the indication information correspondingly indicates whether the resource sets in the corresponding group are available for data mapping. a controller configured to configure one or more resource sets corresponding to each group of a number of groups of control resource sets, and divide all control resource sets of a user equipment , UE, and the one or more resource sets corresponding to each group of control resource sets into a first predetermined number of groups; and a transmitter configured to transmit indication information indicating whether the resource sets in a group of the first predetermined number of groups are available for data mapping, the indication information comprising a predetermined number of bits, wherein, one bit at a predetermined position in the indication information correspondingly indicates whether the resource sets in the corresponding group are available for data mapping.
An aerosol provision device , comprising: a battery ; a battery support configured to engage and hold the battery ; a resilient component arranged between the battery support and the battery ; and a temperature sensor at least partially contained within the resilient component , wherein the temperature sensor is configured to measure a temperature of the battery ; and wherein at least one of the temperature sensor and resilient component abuts the battery . a battery ; a battery support configured to engage and hold the battery ; a resilient component arranged between the battery support and the battery ; and a temperature sensor at least partially contained within the resilient component , wherein the temperature sensor is configured to measure a temperature of the battery ; and wherein at least one of the temperature sensor and resilient component abuts the battery .
A vehicle-to-everything, V2X, message transmission method in a communication network, the communication network comprising an access network and a core network, wherein the access network comprises a base station, the method comprising: receiving (S101), by the base station, a V2X message from user equipment, UE, on a V2X bearer, wherein the V2X bearer is a bearer used to transmit only the V2X message between the UE and the base station; and sending (S102), by the base station, the V2X message directly to a local broadcast multicast service center, BM-SC without passing through the core network; wherein the method further comprises: receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network. receiving (S101), by the base station, a V2X message from user equipment, UE, on a V2X bearer, wherein the V2X bearer is a bearer used to transmit only the V2X message between the UE and the base station; and sending (S102), by the base station, the V2X message directly to a local broadcast multicast service center, BM-SC without passing through the core network; wherein the method further comprises: receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network. receiving, by the base station, the V2X message from the local BM-SC on a multimedia broadcast multicast service, MBMS, bearer, and broadcasting the V2X message, wherein the MBMS bearer is a bearer used to transmit the V2X message between the base station and the local BM-SC; wherein the local BM-SC is not included in the core network such that the V2X message received from the UE is broadcast by the base station without the V2X message passing through the core network.
Holder which can be fastened to an upright and has two jaws which enclose the upright in the manner of clamps, are guided so as to be displaceable relative to one another perpendicular to their abutment surface and have connecting lugs which are located opposite one another in pairs at the jaw ends forming the abutment surfaces , whereby the connecting lugs form wedge-shaped surfaces inclined towards one another on their side facing away from the abutment surface and work together with a respective clamping shoe surrounding the wedge-shaped connecting lugs in a wedge-shaped plug-in receptacle , characterized in that the two jaws each have on their inner side a respective guide web projecting beyond the abutment surface towards the other jaw and engaging in a guide groove of the other jaw .
Refrigeration and/or freezing device having at least one Biofresh compartment, at least one communication module and at least one hardware module , wherein the communication module is designed for connection of the hardware module to a server , which in particular is external, characterised in that the hardware module is a biochemical sensor, which is configured to measure an increased bacterial load and/or an increased CO 2 value inside the Biofresh compartment.
Rotor group of a cooling pump of a cooling circuit of a vehicle, comprising: - a shaft , which extends along an axis (X-X), - a rotor fixed to a rotor end of the shaft and comprising a rotor frame having a central cavity in which the shaft extends and a plurality of inserts suitable to operate as rotor poles; - a main device that which extends along the axis (X-X) and comprises: i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end ; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end ; the rotor group being characterized by the fact that the rotor frame has, parallel to the axis (X-X) a plurality of through holes , wherein the rotor body comprises a plurality of support pins respectively housed in said through holes . - a shaft , which extends along an axis (X-X), - a rotor fixed to a rotor end of the shaft and comprising a rotor frame having a central cavity in which the shaft extends and a plurality of inserts suitable to operate as rotor poles; - a main device that which extends along the axis (X-X) and comprises: i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end ; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end ; i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end ; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end ;
A vehicle module for transporting at least one person, comprising at least two wheels adapted for ground engagement; an electric motor operationally connected to the wheels for propelling the vehicle module ; an electrical energy storage operationally connected to the electric motor for providing energy to the electric motor ; at least one charging means , which is operationally connected to the energy storage and adapted to be operationally connected to another vehicle module or vehicle for providing charging electricity to and/or receive charging electricity from said another vehicle module or vehicle; wherein the at least one charging means further comprises a respective connection means for securely attaching the vehicle module to said another vehicle module or vehicle or to a charging or parking station ; characterized in that at least one of the connection means , is arranged to connect the vehicle module to said another vehicle module or vehicle so that the wheels of the vehicle module are parallel to the wheels of the connected said another vehicle module or vehicle; and wherein, when the vehicle module is connected to said another vehicle module or vehicle, a control unit of the vehicle module is adapted to take control over the steering of the said another vehicle module or vehicle so as to drive the vehicle assembly as one vehicle; wherein, charging power may be shared between the module and said another vehicle module or vehicle while the vehicle assembly is driving. at least two wheels adapted for ground engagement; an electric motor operationally connected to the wheels for propelling the vehicle module ; an electrical energy storage operationally connected to the electric motor for providing energy to the electric motor ; at least one charging means , which is operationally connected to the energy storage and adapted to be operationally connected to another vehicle module or vehicle for providing charging electricity to and/or receive charging electricity from said another vehicle module or vehicle; wherein the at least one charging means further comprises a respective connection means for securely attaching the vehicle module to said another vehicle module or vehicle or to a charging or parking station ; characterized in that at least one of the connection means , is arranged to connect the vehicle module to said another vehicle module or vehicle so that the wheels of the vehicle module are parallel to the wheels of the connected said another vehicle module or vehicle; and wherein, when the vehicle module is connected to said another vehicle module or vehicle, a control unit of the vehicle module is adapted to take control over the steering of the said another vehicle module or vehicle so as to drive the vehicle assembly as one vehicle; wherein, charging power may be shared between the module and said another vehicle module or vehicle while the vehicle assembly is driving.
Process for the preparation of a porous carbon structure comprising the following steps: a) providing a template comprising voids, b) filling of at least part of the voids with a precursor for the formation of the porous carbon structure, c) carbonizing the precursor for the formation of the porous carbon structure and d) removing at least part of the template, wherein the template comprises a mixture of inorganic oxide particles with a bimodal particle size distribution which are at least partially removed in step d) by etching with a suitable acid or base, preferably comprising hydrofluoric acid (HF), and wherein the template comprises voids between the particles, wherein the inorganic oxide particles have a diameter of 100 nm or less and a diameter of 500 nm or more, wherein the partial removal of bimodal particles in step d) removes the particles of a smaller size and only partially etches the particles of a larger size to create adsorption sites for polysulfides. a) providing a template comprising voids, b) filling of at least part of the voids with a precursor for the formation of the porous carbon structure, c) carbonizing the precursor for the formation of the porous carbon structure and d) removing at least part of the template,