mhurhangee/ep-ind-claims huggingface dataset:
A wave guide for an array antenna, the wave guide comprising: a mounting portion configured to receive a plurality of radar antennas of the array antenna, the mounting portion comprising a respective receiving position for each radar antenna of the array antenna; a set of elongate members spaced from the mounting portion, each elongate member (20,22) including a series of apertures arranged along the elongate member (20,22), wherein each elongate member (20, 22) extends orthogonally to an adjacent elongate member (20, 22) of the set; and a plurality of guide channels, each guide channel extending between a respective one or more receiving positions of the mounting portion and a respective one or more apertures (24, 38) of the elongate members (20, 22) to connect, in use, one or more of the radar antennas to one or more of the apertures (24, 38). a mounting portion configured to receive a plurality of radar antennas of the array antenna, the mounting portion comprising a respective receiving position for each radar antenna of the array antenna; a set of elongate members spaced from the mounting portion, each elongate member (20,22) including a series of apertures arranged along the elongate member (20,22), wherein each elongate member (20, 22) extends orthogonally to an adjacent elongate member (20, 22) of the set; and a plurality of guide channels, each guide channel extending between a respective one or more receiving positions of the mounting portion and a respective one or more apertures (24, 38) of the elongate members (20, 22) to connect, in use, one or more of the radar antennas to one or more of the apertures (24, 38).
A magnetic coupling assembly comprising: a rotatable male coupling member comprising magnets; a rotatable female coupling member comprising magnets; a static separation member arranged between the male and female coupling members; a first channel in a gap between the male coupling member and the separation member; a second channel in a gap between the female coupling member and the separation member; an axial internal channel in the male coupling member; a magnetic coupling section of the static separation member, wherein the magnetic coupling section is the section of the static separation member between the magnets of the male coupling member and the magnets of the female coupling member; wherein the female and male coupling members are rotatable coupled by the magnets through the magnetic coupling section of the static separation member; wherein the first channel, the second channel and the axial internal channel contain fluid forced to flow through said channels for cooling and rotodynamic stabilization; and wherein the magnetic coupling section of the static separation member has a length to diameter ratio larger than one, characterised in that one or both of the first and second channels, in a direction of flow, has a non-uniform radial gap for flow, wherein the radial gap is stepwise and/or gradually decreasing or increasing along the direction of flow, for improved rotodynamic stability. a rotatable male coupling member comprising magnets; a rotatable female coupling member comprising magnets; a static separation member arranged between the male and female coupling members; a first channel in a gap between the male coupling member and the separation member; a second channel in a gap between the female coupling member and the separation member; an axial internal channel in the male coupling member; a magnetic coupling section of the static separation member, wherein the magnetic coupling section is the section of the static separation member between the magnets of the male coupling member and the magnets of the female coupling member; wherein the female and male coupling members are rotatable coupled by the magnets through the magnetic coupling section of the static separation member; wherein the first channel, the second channel and the axial internal channel contain fluid forced to flow through said channels for cooling and rotodynamic stabilization; and
A building system comprising a building space defined by a structural ceiling and a flooring of a building, and a ceiling system, the ceiling system comprising an air permeable suspended ceiling arranged below the structural ceiling, wherein a plenum space is formed between the suspended ceiling and the structural ceiling and a flooring space is formed between the flooring and the suspended ceiling, and a plurality of partition wall sections, the plurality of partition wall sections being arranged in the plenum space, extending between the structural ceiling and the suspended ceiling; and forming a plurality of plenum modules distributed across the plenum space, wherein the building system further comprising a plurality of partition walls arranged in the flooring space extending from the flooring to the suspended ceiling, wherein each partition wall of the plurality of partition walls is aligned with an associated partition wall section of the plurality of partition wall sections, wherein each of the plurality of plenum modules forms a closed space defined by the structural ceiling, the suspended ceiling and the associated partition wall sections, and wherein each of the plurality of plenum modules comprises equipment, the equipment of each plenum module comprising a supply air device for delivery of supply air to the associated plenum module for pressurization thereof such that the supply air delivered to the plenum module is supplied to the flooring space through the air permeable suspended ceiling. the ceiling system comprising an air permeable suspended ceiling arranged below the structural ceiling, wherein a plenum space is formed between the suspended ceiling and the structural ceiling and a flooring space is formed between the flooring and the suspended ceiling, and a plurality of partition wall sections, the plurality of partition wall sections being arranged in the plenum space, extending between the structural ceiling and the suspended ceiling; and forming a plurality of plenum modules distributed across the plenum space, wherein the building system further comprising a plurality of partition walls arranged in the flooring space extending from the flooring to the suspended ceiling, wherein each partition wall of the plurality of partition walls is aligned with an associated partition wall section of the plurality of partition wall sections, wherein each of the plurality of plenum modules forms a closed space defined by the structural ceiling, the suspended ceiling and the associated partition wall sections, and wherein each of the plurality of plenum modules comprises equipment, the equipment of each plenum module comprising a supply air device for delivery of supply air to the associated plenum module for pressurization thereof such that the supply air delivered to the plenum module is supplied to the flooring space through the air permeable suspended ceiling.
Method to control a connectible and disconnectable retarder, when said connectible and disconnectable retarder is initially connected and acts on a powertrain in a vehicle; characterised in: - simulation of at least one future velocity profile v sim for at least one respective actual vehicle speed v act during a road section ahead of a vehicle, wherein said simulation is based on information related to said road section and assumes that said connectible and disconnectable retarder is connected for at least an initial part of said road section; - determination, based on said at least one future velocity profile v sim, of at least one respective first position P max, at which said at least one first position P max said at least one respective actual vehicle speed v act will exceed a maximum permitted speed v max; - determination based on said at least one future velocity profile v sim, of whether a velocity development for said vehicle will be adversely impacted in relation to said maximum permitted speed v max before said velocity profile reaches said at least one first position P max, if said connectible and disconnectable retarder is connected; and - control of said connectible and disconnectable retarder, wherein said connectible and disconnectable retarder continues being connected, if it has been determined that no adverse impact on said velocity development thus arises, and wherein said connectible and disconnectable retarder is disconnected, if it has been determined that an adverse impact on said velocity development thus arises. - simulation of at least one future velocity profile v sim for at least one respective actual vehicle speed v act during a road section ahead of a vehicle, wherein said simulation is based on information related to said road section and assumes that said connectible and disconnectable retarder is connected for at least an initial part of said road section; - determination, based on said at least one future velocity profile v sim, of at least one respective first position P max, at which said at least one first position P max said at least one respective actual vehicle speed v act will exceed a maximum permitted speed v max; - determination based on said at least one future velocity profile v sim, of whether a velocity development for said vehicle will be adversely impacted in relation to said maximum permitted speed v max before said velocity profile reaches said at least one first position P max, if said connectible and disconnectable retarder is connected; and - control of said connectible and disconnectable retarder, wherein said connectible and disconnectable retarder continues being connected, if it has been determined that no adverse impact on said velocity development thus arises, and wherein said connectible and disconnectable retarder is disconnected, if it has been determined that an adverse impact on said velocity development thus arises.
A method of tamper attempt reporting, comprising: receiving a write attempt to configuration data stored within a field device (312, 313) in an industrial plant configured to run a process involving a plurality of physical process parameters including a network server, a plurality of processing units (311a-f), and a plurality of said field devices, said plurality of field devices including (i) a sensor for measuring at least one of said plurality of physical process parameters or (ii) an instrument for performing control output actions for at least one of said plurality of processing units, said plurality of field devices each being in communication with at least one remote host system or device; said field device automatically detecting said write attempt, and said field device automatically sending an alert of said write attempt to at least said remote host system or device wherein said plurality of field devices further include a memory, wherein an Automatic Tamper Attempt Reporting, ATAR, algorithm is stored in said memory, said ATAR algorithm having executable code for said automatically detecting said write attempt and said automatically sending said alert, and wherein disabling of said ATAR algorithm results in automatically sending an alert to said remote host system or device. receiving a write attempt to configuration data stored within a field device (312, 313) in an industrial plant configured to run a process involving a plurality of physical process parameters including a network server, a plurality of processing units (311a-f), and a plurality of said field devices, said plurality of field devices including (i) a sensor for measuring at least one of said plurality of physical process parameters or (ii) an instrument for performing control output actions for at least one of said plurality of processing units, said plurality of field devices each being in communication with at least one remote host system or device; said field device automatically detecting said write attempt, and said field device automatically sending an alert of said write attempt to at least said remote host system or device wherein said plurality of field devices further include a memory, wherein an Automatic Tamper Attempt Reporting, ATAR, algorithm is stored in said memory, said ATAR algorithm having executable code for said automatically detecting said write attempt and said automatically sending said alert, and wherein disabling of said ATAR algorithm results in automatically sending an alert to said remote host system or device.
A method for enhancing the corrosion resistance of a surface of a copper or copper alloy substrate, the method comprising: depositing a precious metal surface layer comprising gold, silver, or a combination thereof, on the surface of the copper or copper alloy substrate by immersion displacement plating; exposing the copper or copper alloy substrate comprising the precious metal surface layer to an aqueous composition consisting of (a) a concentration of a first organic molecule comprising at least one functional group that interacts with and protects precious metal surfaces, wherein the first organic molecule is selected from the group consisting of a thiol, a disulfide, and a combination thereof, (b) a concentration of a second organic molecule comprising at least one functional group that interacts with and protects copper surfaces, wherein the second organic molecule comprises an aromatic heterocycle comprising nitrogen, (c) surfactant, (d) water, and optionally (e) alcohol and/or (f) alkaline pH adjustor, wherein said composition leaves a self-assembled hydrophobic film on the surface. depositing a precious metal surface layer comprising gold, silver, or a combination thereof, on the surface of the copper or copper alloy substrate by immersion displacement plating; exposing the copper or copper alloy substrate comprising the precious metal surface layer to an aqueous composition consisting of (a) a concentration of a first organic molecule comprising at least one functional group that interacts with and protects precious metal surfaces, wherein the first organic molecule is selected from the group consisting of a thiol, a disulfide, and a combination thereof, (b) a concentration of a second organic molecule comprising at least one functional group that interacts with and protects copper surfaces, wherein the second organic molecule comprises an aromatic heterocycle comprising nitrogen, (c) surfactant, (d) water, and optionally (e) alcohol and/or (f) alkaline pH adjustor, wherein said composition leaves a self-assembled hydrophobic film on the surface.
An edible lipid composition comprising olive oil and a stearidonic acid component (SDA component), wherein said SDA component comprises stearidonic acid in an amount of at least 6% by weight and wherein said olive oil comprises polyphenols in an amount of at least 250 mg per kg olive oil and wherein the ratio between the olive oil and the SDA component is from 3:8 to 3:2.
A method performed by a first base station for adding a second base station in a wireless communication system supporting dual connectivity of an user equipment, UE, the method comprising: selecting the second base station based on resource restriction information for the UE; transmitting, to the second base station, a second base station addition request message for requesting allocation of resources for dual connectivity of the UE, the second base station addition request message including a serving public land mobile network, PLMN, identifier to be used for managing radio resources according to the dual connectivity of the UE; and receiving, from the second base station, a response message corresponding to the second base station addition request message. selecting the second base station based on resource restriction information for the UE; transmitting, to the second base station, a second base station addition request message for requesting allocation of resources for dual connectivity of the UE, the second base station addition request message including a serving public land mobile network, PLMN, identifier to be used for managing radio resources according to the dual connectivity of the UE; and receiving, from the second base station, a response message corresponding to the second base station addition request message.
Power semiconductor module comprising an electrically conducting base plate, an electrically conducting top plate, arranged in parallel to the base plate and spaced apart from the base plate, at least one power semiconductor device, which is arranged on the base plate in a space formed between the base plate and the top plate, and at least one presspin (5, 7), which is arranged in the space formed between the base plate and the top plate to provide contact between the power semiconductor device and the top plate, characterized in that a metallic protection plate is provided at an inner face of the top plate facing towards the base plate, whereby the material of the protection plate has a melting temperature higher than the melting temperature of the top plate, and wherein the material of the protection plate is an alloy comprising molybdenum and copper. an electrically conducting base plate, an electrically conducting top plate, arranged in parallel to the base plate and spaced apart from the base plate, at least one power semiconductor device, which is arranged on the base plate in a space formed between the base plate and the top plate, and at least one presspin (5, 7), which is arranged in the space formed between the base plate and the top plate to provide contact between the power semiconductor device and the top plate, characterized in that a metallic protection plate is provided at an inner face of the top plate facing towards the base plate, whereby the material of the protection plate has a melting temperature higher than the melting temperature of the top plate, and wherein the material of the protection plate is an alloy comprising molybdenum and copper.
A method of preparing a rubber composition comprising: a. blending in at least one preparatory mixing step (i) at least one synthetic rubbery polymer including styrene-butadiene rubber and optionally at least one natural rubbery polymer, (ii) a silica filler, (iii) a silica coupling agent selected from one or more organo silane polysulfides, and (iv) 1,3-diphenylguanidine as vulcanization accelerator; and b. subsequently blending therewith in a final mixing step a sulfur curative, wherein the average glass transition temperature of the polymer(s) is -55°C or less. a. blending in at least one preparatory mixing step (i) at least one synthetic rubbery polymer including styrene-butadiene rubber and optionally at least one natural rubbery polymer, (ii) a silica filler, (iii) a silica coupling agent selected from one or more organo silane polysulfides, and (iv) 1,3-diphenylguanidine as vulcanization accelerator; and (i) at least one synthetic rubbery polymer including styrene-butadiene rubber and optionally at least one natural rubbery polymer, (ii) a silica filler, (iii) a silica coupling agent selected from one or more organo silane polysulfides, and (iv) 1,3-diphenylguanidine as vulcanization accelerator; and b. subsequently blending therewith in a final mixing step a sulfur curative, wherein the average glass transition temperature of the polymer(s) is -55°C or less.
A combustor for use in a gas turbine engine, the combustor comprising an outer case, a combustion liner arranged radially inward of the outer case and arranged to define an annular combustion chamber, the combustion liner including at least one monolithic annular liner tile (61, 63), and a mount assembly coupled to the outer case and to the combustion liner to locate the at least one monolithic annular liner tile relative to the outer case, wherein the mount assembly extends from the outer case to the at least one monolithic annular liner tile to locate the combustion liner relative to the outer case and the mount assembly includes at least three mount pins circumferentially spaced apart from one another and a tile hanger that extends from the at least one monolithic annular liner tile (61, 63) to receive each of the at least three mount pins; optionally wherein the tile hanger includes at least three hanger tabs that extend from the at least one monolithic annular liner tile and the hanger tabs are circumferentially spaced apart from one another to correspond to the at least three mount pins.
A shifting mechanism, comprising: a unitary shift fork comprising a lower lever arm, an upright portion and an upper arm, said lower lever arm and said upper arm having apertures for receiving pegs (114, 116) that extend therethrough, said lower lever arm having a toothed, arc-shaped end, said upright portion defining a pivot axis for said shift fork; an axially slidable clutch collar at least a portion of which is concentrically surrounded by said unitary shift fork; a first peg that extends through said upper arm and a second peg that extends through said lower arm to engage with said clutch collar; and at least one reduction gear (84, 88) drivingly engaged with both said lower lever arm and a shift motor. a unitary shift fork comprising a lower lever arm, an upright portion and an upper arm, said lower lever arm and said upper arm having apertures for receiving pegs (114, 116) that extend therethrough, said lower lever arm having a toothed, arc-shaped end, said upright portion defining a pivot axis for said shift fork; an axially slidable clutch collar at least a portion of which is concentrically surrounded by said unitary shift fork; a first peg that extends through said upper arm and a second peg that extends through said lower arm to engage with said clutch collar; and at least one reduction gear (84, 88) drivingly engaged with both said lower lever arm and a shift motor.
A method of associating a radio access technology, RAT, supported by a wireless device, WD, with a first service, wherein the WD supports at least a first RAT, a second RAT and a third RAT, wherein the second RAT supports a first service and a second service, the first RAT supports the first service but not the second service, and the third RAT supports at least the first service, wherein the method is performed by the WD and comprises the steps of: acquiring an indicator that the second service is to be associated with the second RAT; characterized by, acquiring an indicator that said third RAT is available for use; acquiring channel measurements for at least one of the second RAT and the third RAT; and associating the first service with one of the second RAT and the third RAT based on the acquired channel measurements. acquiring an indicator that the second service is to be associated with the second RAT; characterized by, acquiring an indicator that said third RAT is available for use; acquiring channel measurements for at least one of the second RAT and the third RAT; and associating the first service with one of the second RAT and the third RAT based on the acquired channel measurements.
A method for producing a non-graphitizable carbon material, the method comprising a process of obtaining a cross-linked product by performing a cross-linking treatment on a raw material for the non-graphitizable carbon material, wherein the cross-linking treatment is a method utilizing an air blowing reaction being a liquid state reaction in which the softening point of the raw material is increased by heating the raw material and by blowing an oxidizing gas selected from the group consisting of air, oxygen, ozone, and a mixture of these gases into the raw material, and wherein the raw material is a pitch, a process of obtaining an infusibilized product by performing an infusibilizing treatment on the cross-linked product, wherein the infusibilizing treatment is an oxidizing treatment which is carried out in a solid state by a dry method using air or oxygen as an oxidative gas, and a process of obtaining a non-graphitizable carbon material by baking the infusibilized product, wherein a mechanochemical treatment is performed on the cross-linked product or the infusibilized product.