mhurhangee/ep-ind-claims huggingface dataset:
A user terminal device for providing wireless network access to an external wide area network, the user terminal device comprising processing circuitry, the processing circuitry being configured to cause the user terminal device to: establish a wireless connection to a gateway device located in a vehicle, whereby the user terminal device is identified as a client to the gateway device, wherein the user terminal device is configured to use the gateway device as gateway for all data traffic exchanged between the user terminal device and the external wide area network, wherein the wireless connection to the gateway device is established whilst the user terminal device maintains wireless network access between itself and the external wide area network, and wherein also data traffic is exchanged between the external wide area network and a local application run in the user terminal device, whereby the user terminal device is configured to route this data traffic through the gateway device; and establish wireless network access for the gateway device to the external wide area network, whereby the gateway device is operatively connected to the external wide area network via the user terminal device, wherein the user terminal device is configured to bridge all data traffic communicated between the gateway device and the external wide area network. establish a wireless connection to a gateway device located in a vehicle, whereby the user terminal device is identified as a client to the gateway device, wherein the user terminal device is configured to use the gateway device as gateway for all data traffic exchanged between the user terminal device and the external wide area network, wherein the wireless connection to the gateway device is established whilst the user terminal device maintains wireless network access between itself and the external wide area network, and wherein also data traffic is exchanged between the external wide area network and a local application run in the user terminal device, whereby the user terminal device is configured to route this data traffic through the gateway device; and establish wireless network access for the gateway device to the external wide area network, whereby the gateway device is operatively connected to the external wide area network via the user terminal device, wherein the user terminal device is configured to bridge all data traffic communicated between the gateway device and the external wide area network.
Pelton turbine nozzle with a nozzle tip and an assembly comprising a main housing, a servomotor housing with a cylinder space and a rib connecting the servomotor housing to the main housing, wherein the servomotor housing comprises a guide bushing forming the cylinder space of the servomotor, and wherein the assembly comprises feed lines for hydraulic fluid which open out in the cylinder space of the servomotor and penetrate the main housing, at least one rib, the servomotor housing and the guide bushing, characterized in that the assembly is produced in one piece by means of an additive manufacturing process, and the feed lines open out at the end of the main housing facing away from the nozzle tip.
A magnetic actuator assembly, comprising: a core constructed of a magnetic material, the core including a first end and a second end; wiring wound around a portion of the core, wherein a predetermined amount of electric current is applied to the wiring to induce a magnetic field within the core; and a gate assembly positioned between the first end and a second end of the core, the gate assembly comprising: a first gate member defining a first aperture; a second gate member defining a second aperture; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture, the second aperture, and the passageway define a passage through the gate assembly, and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly, wherein the threshold force is created by the magnetic field. a core constructed of a magnetic material, the core including a first end and a second end; wiring wound around a portion of the core, wherein a predetermined amount of electric current is applied to the wiring to induce a magnetic field within the core; and a gate assembly positioned between the first end and a second end of the core, the gate assembly comprising: a first gate member defining a first aperture; a second gate member defining a second aperture; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture, the second aperture, and the passageway define a passage through the gate assembly, and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly, wherein the threshold force is created by the magnetic field. a first gate member defining a first aperture; a second gate member defining a second aperture; and an elastic member defining a passageway therethrough; wherein the elastic member is received between the first gate member and the second gate member and the first aperture, the second aperture, and the passageway define a passage through the gate assembly, and wherein both the first gate member and the second gate member and the elastic member travel together between the first end and a second end of the core based on a threshold force being applied to the gate assembly, wherein the threshold force is created by the magnetic field.
An actuator device comprising: a support portion; a movable portion; a connection portion which connects the movable portion to the support portion on a predetermined axis so that the movable portion is swingable about the axis; a first wiring which is provided on the connection portion; a second wiring which is provided on the support portion; and an insulation layer which includes a first opening exposing a surface opposite to the support portion in a first connection part (25, 33) and covers a corner (25b, 33b) of the first connection part (25, 33), the first connection part (25, 33) being located on the support portion in one wiring of the first wiring and the second wiring, wherein the surface of a region of the insulation layer corresponding to the corner (25b, 33b) of the first connection part (25, 33) opposite to the support portion is curved in a convex shape toward the opposite side to the support portion, and the region is positioned between the first wiring and the second wiring, wherein the surface of said region is in contact with the other wiring of the first wiring and the second wiring, wherein a rigidity of a first metal material forming the first wiring is higher than a rigidity of a second metal material forming the second wiring, and wherein the other wiring of the first wiring and the second wiring is connected to the surface of the first connection part (25, 33) in the first opening. a support portion; a movable portion; a connection portion which connects the movable portion to the support portion on a predetermined axis so that the movable portion is swingable about the axis; a first wiring which is provided on the connection portion; a second wiring which is provided on the support portion; and an insulation layer which includes a first opening exposing a surface opposite to the support portion in a first connection part (25, 33) and covers a corner (25b, 33b) of the first connection part (25, 33), the first connection part (25, 33) being located on the support portion in one wiring of the first wiring and the second wiring, wherein the surface of a region of the insulation layer corresponding to the corner (25b, 33b) of the first connection part (25, 33) opposite to the support portion is curved in a convex shape toward the opposite side to the support portion, and the region is positioned between the first wiring and the second wiring, wherein the surface of said region is in contact with the other wiring of the first wiring and the second wiring, wherein a rigidity of a first metal material forming the first wiring is higher than a rigidity of a second metal material forming the second wiring, and wherein the other wiring of the first wiring and the second wiring is connected to the surface of the first connection part (25, 33) in the first opening.
A process for the alkylation of benzene with isopropanol, or a blend of isopropanol and propylene, which comprises effecting said alkylation reaction under temperature and pressure conditions in which the reagents are in gas phase, whereas the products are at least partially liquid,in the presence of a catalytic system containing a zeolite of the MTW structural type, wherein said temperature ranges from 150 °C to 230 °C, said pressure ranges from 5 to 20 bar, said zeolite is ZSM-12 and wherein said reaction is carried out with a molar ratio between benzene and isopropanol, or between benzene and a blend of isopropanol and propylene, which ranges from 2 to 4.
A method for detecting a disturbance in a power system within a digital substation, including: sensing electrical parameters at an end of a transmission line; sampling the sensed electrical parameters; extracting travelling-wave information from high frequency component of the samples using a signal processing method and judging if it indicates occurrence of the disturbance; characterised by if the extracted travelling-wave information indicating occurrence of the disturbance, transmitting the extracted travelling-wave information to an intelligent electronic device of the digital substation from a merging unit or non-conventional instrument transformer of the digital substation. sensing electrical parameters at an end of a transmission line; sampling the sensed electrical parameters; extracting travelling-wave information from high frequency component of the samples using a signal processing method and judging if it indicates occurrence of the disturbance; characterised by if the extracted travelling-wave information indicating occurrence of the disturbance, transmitting the extracted travelling-wave information to an intelligent electronic device of the digital substation from a merging unit or non-conventional instrument transformer of the digital substation.
A method of forwarding a received message in a mesh network, said mesh network comprising a plurality of communicatively interconnected mesh nodes arranged for transmitting messages in accordance with a message transmission protocol in a randomized transmission mode having a random time delay (351, 352) between subsequent transmissions, said method comprising the step of: - receiving, by a mesh node of said plurality of interconnected mesh nodes, a message to be forwarded in said mesh network; characterised in that said mesh node is arranged for transmitting messages in a compact transmission mode in accordance with said message transmission protocol, wherein messages are unicasted a plurality of times having a predetermined time delay between subsequent unicast transmissions, said method further comprising the steps of: - determining, by said mesh node, that said received message to be forwarded is to be unicasted to a particular neighbour mesh node of said mesh node, said particular neighbour mesh node being one hop away from said mesh node; - selecting (150, 250), by said mesh node, said compact transmission mode for transmitting said message to be forwarded to said particular neighbour mesh node, and - unicasting, by said mesh node, said message to be forwarded to said particular neighbour mesh node in accordance with said compact transmission mode. - receiving, by a mesh node of said plurality of interconnected mesh nodes, a message to be forwarded in said mesh network; - determining, by said mesh node, that said received message to be forwarded is to be unicasted to a particular neighbour mesh node of said mesh node, said particular neighbour mesh node being one hop away from said mesh node; - selecting (150, 250), by said mesh node, said compact transmission mode for transmitting said message to be forwarded to said particular neighbour mesh node, and - unicasting, by said mesh node, said message to be forwarded to said particular neighbour mesh node in accordance with said compact transmission mode.
A food or beverage box comprising a container and a lid designed to hermetically close the container, a bottom of the container having protrusions extending outwards, the lid having recesses opening outwards, each protrusion being capable of entering at least partially into each recess, each protrusion is located respectively to the right of a corresponding recess when the lid hermetically closes the container, characterized in that the number of protrusions is less than the number of recesses.
A method of making a high-strength composite, comprising: plating a conducting surface on a substrate; electroplating flat graphene flakes onto the conducting surface from a carrier fluid suspension of graphene flakes in a vessel; removing the plated substrate from the vessel; drying to remove carrier fluid from the plated graphene; applying a layer of polymer containing a solvent to infiltrate between the graphene flakes, wherein the polymer is chemically bondable to the graphene; and removing air from between the graphene flakes infiltrated by said bondable polymer layer. plating a conducting surface on a substrate; electroplating flat graphene flakes onto the conducting surface from a carrier fluid suspension of graphene flakes in a vessel; removing the plated substrate from the vessel; drying to remove carrier fluid from the plated graphene; applying a layer of polymer containing a solvent to infiltrate between the graphene flakes, wherein the polymer is chemically bondable to the graphene; and removing air from between the graphene flakes infiltrated by said bondable polymer layer.
A generator, comprising: a non-rotatable component supporting a field winding assembly; a rotatable component oriented to rotate relative to the non-rotatable component during operation of the generator; an armature winding assembly fixedly coupled to the rotatable component so as to rotate therewith during the operation of the generator, the armature winding assembly comprising at least two separate phase windings, wherein each of the at least two separate phase windings has a first end coupled to a corresponding winding terminal and a second end; and characterised in that the generator further comprises a resistive assembly fixedly coupled to the rotatable component so as to rotate therewith during the operation of the generator, the resistive assembly electrically coupling each of the second ends of the at least two separate phase windings together, the resistive assembly being configured to introduce a resistance into the armature winding assembly in response to an electrical fault affecting the armature winding assembly. a non-rotatable component supporting a field winding assembly; a rotatable component oriented to rotate relative to the non-rotatable component during operation of the generator; an armature winding assembly fixedly coupled to the rotatable component so as to rotate therewith during the operation of the generator, the armature winding assembly comprising at least two separate phase windings, wherein each of the at least two separate phase windings has a first end coupled to a corresponding winding terminal and a second end; and characterised in that the generator further comprises a resistive assembly fixedly coupled to the rotatable component so as to rotate therewith during the operation of the generator, the resistive assembly electrically coupling each of the second ends of the at least two separate phase windings together, the resistive assembly being configured to introduce a resistance into the armature winding assembly in response to an electrical fault affecting the armature winding assembly.
An additive manufacturing system, comprising: one or more light sources (601, 602, 603) each configured to emit an energy beam; a first optical assembly configured to multiplex together the energy beam emitted by the one or more light sources (601, 602, 603); an optical device configured to reshape and blend the energy beam multiplexed by the first optical assembly; an optically addressable light patterning unit in form of a spatial polarization valve to receive the energy beam reshaped and blended by the optical device and emit light as two-dimensional patterned beam, a polarizer rejecting energy not required to form the two-dimensional patterned beam; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected energy handling unit to reuse the rejected energy from the polarizer by reintroducing the rejected energy to the first optical assembly. one or more light sources (601, 602, 603) each configured to emit an energy beam; a first optical assembly configured to multiplex together the energy beam emitted by the one or more light sources (601, 602, 603); an optical device configured to reshape and blend the energy beam multiplexed by the first optical assembly; an optically addressable light patterning unit in form of a spatial polarization valve to receive the energy beam reshaped and blended by the optical device and emit light as two-dimensional patterned beam, a polarizer rejecting energy not required to form the two-dimensional patterned beam; an image relay to receive the two-dimensional patterned beam and focus it as a two-dimensional image on a powder bed; and a rejected energy handling unit to reuse the rejected energy from the polarizer by reintroducing the rejected energy to the first optical assembly.
An electric vehicle control device comprising: an inverter unit including a plurality of inverters (21a, 21b, 21c, and 21d), each of the inverters including U phase, V phase, and W phase and outputting electric power for driving an electric motor, each of the U, V, and W phases including a positive side element of an upper arm and a negative side element of a lower arm which are electrically connected in series, and a cooler structure configured to radiate heat generated by the positive side element and the negative side element, wherein the cooler structure includes a heat-receiving board for receiving heat from the positive side element and the negative side element of each of the phases, and a radiator attached to one surface of the heat-receiving board, characterized in that the positive side element and the negative side element of each of the phases are stored in a semiconductor device package, the semiconductor device packages are attached to the other surface of the heat-receiving board opposite to the surface to which the radiator is attached, the semiconductor device packages of the U, V, and W phases of each of the inverters (21a, 21b, 21c, and 21d) are arranged in a line respectively on the other surface, and the semiconductor device packages of each of the U, V, and W phases are arranged in a same row on the other surface. an inverter unit including a plurality of inverters (21a, 21b, 21c, and 21d), each of the inverters including U phase, V phase, and W phase and outputting electric power for driving an electric motor, each of the U, V, and W phases including a positive side element of an upper arm and a negative side element of a lower arm which are electrically connected in series, and a cooler structure configured to radiate heat generated by the positive side element and the negative side element, wherein the cooler structure includes a heat-receiving board for receiving heat from the positive side element and the negative side element of each of the phases, and a radiator attached to one surface of the heat-receiving board, characterized in that the positive side element and the negative side element of each of the phases are stored in a semiconductor device package, the semiconductor device packages are attached to the other surface of the heat-receiving board opposite to the surface to which the radiator is attached, the semiconductor device packages of the U, V, and W phases of each of the inverters (21a, 21b, 21c, and 21d) are arranged in a line respectively on the other surface, and the semiconductor device packages of each of the U, V, and W phases are arranged in a same row on the other surface.
A method, in a first network node, for communications handling with a second network node for transparent transmission of Machine-to-Machine, M2M, application specific parameters throughout a communications network, the first and second network nodes being comprised in said communications network, the first network node being a M2M device and the second network node being a Gateway General Packet Radio Service Support Node, GGSN, or a Packet Data Network Gateway, PGW, the method being characterized in comprising: determining, within the first network node, at least one Machine-to-Machine, M2M, application specific parameter, wherein said at least one M2M application specific parameter is an Interface Identifier, IID, portion of a full Internet Protocol version 6, IPv6, address of the M2M device, an indication that a specific IID has been or will be used in the M2M device, and/or a full IPv6 address of the M2M device; and transmitting said at least one M2M application specific parameter to said second network node, during an establishment of a communication session, wherein the at least one M2M application specific parameter is not modified during said transmitting, wherein the at least one M2M application specific parameter comprises further M2M online/offline control, M2M Packet Data Protocol, PDP, Context lifetime control and M2M network contact interval. determining, within the first network node, at least one Machine-to-Machine, M2M, application specific parameter, wherein said at least one M2M application specific parameter is an Interface Identifier, IID, portion of a full Internet Protocol version 6, IPv6, address of the M2M device, an indication that a specific IID has been or will be used in the M2M device, and/or a full IPv6 address of the M2M device; and transmitting said at least one M2M application specific parameter to said second network node, during an establishment of a communication session, wherein the at least one M2M application specific parameter is not modified during said transmitting, wherein the at least one M2M application specific parameter comprises further M2M online/offline control, M2M Packet Data Protocol, PDP, Context lifetime control and M2M network contact interval.