mhurhangee/ep-ind-claims huggingface dataset:
A mobile platform-mounted mobile communicator configured for communicating with a constellation of satellites (106, 108) comprising: a first antenna optimized for operation using a first frequency band in a first geographic region, wherein the first antenna is further optimized for communication with satellites under conditions found in the first geographic region, wherein the first geographic region is closer to either the North Pole or South Pole than the Equator; a second antenna optimized for operation using either the first frequency band or a second frequency band in a second geographic region, wherein the second antenna is further optimized for communication with satellites under conditions found in the second geographic region, wherein the second geographic region is closer to the Equator; a controller configured to determine to terminate communication with the constellation of satellites via the first antenna on the first frequency band and begin communication with the constellation of satellites via the second antenna on either the first frequency band or the second frequency band based on a geographic indicator indicative of a position of the mobile platform-mounted mobile communicator relative to the earth, wherein the mobile platform-mounted mobile communicator passes from the first geographic region into the second geographic region; and a radome enclosure for the platform-mounted mobile communicator configured to enclose the first antenna, the second antenna or both the first and second antennas. a first antenna optimized for operation using a first frequency band in a first geographic region, wherein the first antenna is further optimized for communication with satellites under conditions found in the first geographic region, wherein the first geographic region is closer to either the North Pole or South Pole than the Equator; a second antenna optimized for operation using either the first frequency band or a second frequency band in a second geographic region, wherein the second antenna is further optimized for communication with satellites under conditions found in the second geographic region, wherein the second geographic region is closer to the Equator; a controller configured to determine to terminate communication with the constellation of satellites via the first antenna on the first frequency band and begin communication with the constellation of satellites via the second antenna on either the first frequency band or the second frequency band based on a geographic indicator indicative of a position of the mobile platform-mounted mobile communicator relative to the earth, wherein the mobile platform-mounted mobile communicator passes from the first geographic region into the second geographic region; and a radome enclosure for the platform-mounted mobile communicator configured to enclose the first antenna, the second antenna or both the first and second antennas.
Bristle carrier injection moulding apparatus for injection moulding of a bristle carrier of a brush, wherein the bristle carrier comprises openings (32; 46; 48; 50) in which bristle tufts are stuffed, containing a first and a second half (72, 74) of an injection mould that define in a closed state at least one cavity between them that reproduces a bristle carrier and is to be filled with liquid plastics, wherein the first half of the mould has a first surface forming the rear side of the bristle carrier and the second half of the mould has a second surface forming the front surface of the bristle carrier, characterized in that in order to form the openings, projecting protrusions (96, 98, 108, 109, 112, 114) extending from the first and/or the second surface (82, 84) are provided and the cross-section of the protrusion (96, 98, 108, 109, 112, 114) of an associated opening at an interface of the first surface to the adjacent protrusion (96, 98, 108, 109, 109, 112, 114) has another geometrical shape as the cross-section of the protrusion (96, 98, 108, 109, 109, 112, 114) associated to the same opening at the interface of the second surface to the associated protrusion (96, 98, 108, 109, 112, 114), in order to form at least one opening, protrusions (96, 98, 108, 109, 112, 114) extending from the first and the second surface, tapering convergently, contacting one another in a closed state and complementing one another are provided, wherein one protrusion of the complementing protrusions (96, 98, 108, 109, 112, 114) on a second surface thereof is assigned to at least one protrusion on the first surface, which has a conical tapered projection adapted to form a funnel of the assigned opening to be produced, that at least two protrusions (98, 114) that are spaced from one another, both tapering conically, or one protrusion formed by two arranged adjacently sections running into one another and tapering conically, extend(s) from the first surface and meet(s) a common protrusion (96, 112) on a second surface in a closed state of the apparatus.
A method for providing a film, said method comprising the steps of: i) providing a base layer, which is water and/or oxygen resistant; ii) coextruding a layer consisting of a tie layer and a contact layer to provide a co-extrusion layer; iii) coating the co-extrusion layer to the base layer; iv) allowing the co-extrusion layer coated to the base layer to adhere to provide the film comprising the tie layer and the contact layer formed as a co-extrusion layer coated to the base layer, wherein the base layer is aluminium; wherein the tie layer comprises at least one layer; wherein the contact layer consists of cycloolefin copolymer, and wherein the tie layer or a plurality of layers constituting the tie layer, has a loading in the range of 7 to 20 g/m2. i) providing a base layer, which is water and/or oxygen resistant; ii) coextruding a layer consisting of a tie layer and a contact layer to provide a co-extrusion layer; iii) coating the co-extrusion layer to the base layer; iv) allowing the co-extrusion layer coated to the base layer to adhere to provide the film comprising the tie layer and the contact layer formed as a co-extrusion layer coated to the base layer, wherein the base layer is aluminium; wherein the tie layer comprises at least one layer; wherein the contact layer consists of cycloolefin copolymer, and wherein the tie layer or a plurality of layers constituting the tie layer, has a loading in the range of 7 to 20 g/m2.
Cable coupling device to connect jumper cables in a distribution system, comprising: at least one patch strip comprising a plurality of connectors arranged along a face of said patch strip; and a support structure (200, 200A, 200C,200D1,200D2) for having a plurality of support positions for supporting several of the at least one patch strip in a stacked arrangement (500, 500A, 500C, 500D1, 500D2), characterized by at least one overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) for the storage of overlengths of the jumper cables, said overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) comprising a tray base and at least one cable guide protruding from said tray base, wherein said overlength storage tray comprises connection means for attaching the overlength storage tray at one of the support positions, the overlength storage tray comprises two openings (483, 484) in an exit/entrance face, the connectors of the patch strip or patch trays are facing basically in the same general direction as the entrance and exit openings (483, 484) of the overlength storage tray; wherein the at least one patch strip and the at least one overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) are positioned movably at different support positions at the support structure (200, 200A, 200C, 200D1, 200D2) in a stacked arrangement (500, 500A, 500C, 500D1, 500D2). at least one patch strip comprising a plurality of connectors arranged along a face of said patch strip; and a support structure (200, 200A, 200C,200D1,200D2) for having a plurality of support positions for supporting several of the at least one patch strip in a stacked arrangement (500, 500A, 500C, 500D1, 500D2), characterized by at least one overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) for the storage of overlengths of the jumper cables, said overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) comprising a tray base and at least one cable guide protruding from said tray base, wherein said overlength storage tray comprises connection means for attaching the overlength storage tray at one of the support positions, the overlength storage tray comprises two openings (483, 484) in an exit/entrance face, the connectors of the patch strip or patch trays are facing basically in the same general direction as the entrance and exit openings (483, 484) of the overlength storage tray; wherein the at least one patch strip and the at least one overlength storage tray (400, 400C1, 400C2, 400DA, 400DB) are positioned movably at different support positions at the support structure (200, 200A, 200C, 200D1, 200D2) in a stacked arrangement (500, 500A, 500C, 500D1, 500D2).
Effect pigments based on Al 2 O 3 flakes characterized in that Al 2 O 3 flakes are coated with one or more layers of a metal oxide or a metal oxide mixture whereas the ratio of the amount of Al 2 O 3 of the Al 2 O 3 flakes and amount of the metal oxide(s) of the coating layer(s) is in the range of 27: 73 to 83: 17 based on the total weight of the effect pigment and that the effect pigments contain on the surface a protective layer which contains at least one rare earth metal oxide, at least one metal oxide selected from silizium, aluminium or zirconium or mixtures thereof and an organic compound and that the protective layer has a thickness of 0.5 - 10 nm.
A system oil composition for a crosshead diesel engine, comprising a mineral oil and/or a synthetic oil as a base oil, viscosity index improver with a PSSI of at most 30, a metallic detergent, and a phosphorus compound, and having a kinematic viscosity of at least 35 mm 2 /s at 50°C, a high-shear viscosity of at most 45 mPa·s at 50°C, and a high-shear viscosity of at least 15 mPa·s at 70°C, wherein the PSSI denotes the Permanent Shear Stability Index of a polymer calculated based on data measured by ASTM D 6278-02 in conformity with ASTM D 6022-01, and wherein the high-shear viscosity is measured at the prescribed temperatures at a shear velocity of 10 6 s -1 in conformity with the measurement method prescribed by ASTM D4683, wherein the base oil is a mixture of a base oil having a kinematic viscosity of greater than 15 mm 2 /s and at most 30 mm 2 /s at 100°C and a base oil having a kinematic viscosity of greater than 3 mm 2 /s and at most 12 mm 2 /s at 100°C, and a fraction of a total base oil amount occupied by the base oil having the kinematic viscosity of greater than 15 mm 2 /s and at most 30 mm 2 /s at 100°C is at least 7% by mass, a content of the viscosity index improver is from 1.0% to 15.0% by mass Based on the system oil composition, and a metal in the metallic detergent is calcium or magnesium, and a content of the metallic detergent in terms of metal content is 0.12% to 1.0% by mass.
Processing head for a forestry machine, the processing head being intended to process a tree having a trunk with a longitudinal direction, branches extending from the trunk transversely to the longitudinal direction and knots extending into the trunk, the processing head comprising: - a frame having a seat for receiving the trunk of the tree to be processed; - a motorised device for moving the trunk relative to the seat, the motorised device being configured to advance the trunk through the seat along the longitudinal direction of the trunk; - one or more blades for cutting the branches from the trunk as the trunk advances through the seat; characterised in that the processing head comprises a detection system that is configured to detect positions of the branches and/or of the knots on the trunk during a processing of the tree in which the branches are cut from the trunk as the trunk advances through the seat, the detection system being managed by an electronic processor, whereby information on the positions of the branches and/or of the knots on the trunk is obtained during the processing of the tree by the processing head itself and is processed by the electronic processor. the processing head comprising: - a frame having a seat for receiving the trunk of the tree to be processed; - a motorised device for moving the trunk relative to the seat, the motorised device being configured to advance the trunk through the seat along the longitudinal direction of the trunk; - one or more blades for cutting the branches from the trunk as the trunk advances through the seat; - a frame having a seat for receiving the trunk of the tree to be processed; - a motorised device for moving the trunk relative to the seat, the motorised device being configured to advance the trunk through the seat along the longitudinal direction of the trunk; - one or more blades for cutting the branches from the trunk as the trunk advances through the seat; characterised in that the processing head comprises a detection system that is configured to detect positions of the branches and/or of the knots on the trunk during a processing of the tree in which the branches are cut from the trunk as the trunk advances through the seat, the detection system being managed by an electronic processor, whereby information on the positions of the branches and/or of the knots on the trunk is obtained during the processing of the tree by the processing head itself and is processed by the electronic processor.
A method to be executed in a computing device for facilitating multimodal conversation park and retrieval, the method comprising: receiving a request for parking a multimodal conversation at a communication server; parking the conversation, characterised in that distinct modalities of the conversation are identified with a conversation identifier; notifying at least one subscriber about the parked conversation; enabling the at least one subscriber to retrieve at least one of the distinct modalities of the parked conversation; upon receiving an indication of selected modalities of the parked conversation from the at least one subscriber, enabling the subscriber to continue the conversation in the selected modalities; and providing a subscriber requesting to park the conversation with a parking location identifier of the conversation such that the notified at least one subscriber is enabled to retrieve the at least one of the distinct modalities of the parked conversation from a location identified by the location identifier. receiving a request for parking a multimodal conversation at a communication server; parking the conversation, characterised in that distinct modalities of the conversation are identified with a conversation identifier; notifying at least one subscriber about the parked conversation; enabling the at least one subscriber to retrieve at least one of the distinct modalities of the parked conversation; upon receiving an indication of selected modalities of the parked conversation from the at least one subscriber, enabling the subscriber to continue the conversation in the selected modalities; and providing a subscriber requesting to park the conversation with a parking location identifier of the conversation such that the notified at least one subscriber is enabled to retrieve the at least one of the distinct modalities of the parked conversation from a location identified by the location identifier.
A method for connecting a plurality of layers of a structure using a helically profiled fastener having a twisted wire body having a common axial core, a protruding helix extending from a pointed leading end, the method including: • providing a drive adapter having a substantially rigid and non-yielding body, said body having a leading end including an axial recess and a tail end including means to engage an impact-energy driving machine; • engaging the tail end of the adapter with an impact-energy driving machine; • aligning the fastener arrangement to a host material layer (42,52); • energising the fastener with the impact-energy driving machine via the adapter whereupon the fastener is impelled by a series of impacting forces to windingly cut helical grooves into the host material layer (42,52) and onwards into a subsequent layer (41,51) until the leading end of the adapter penetrates the near surface of the host material layer; • thereafter removing the leading end of the adapter from the host material, leaving the fastener's driving shank portion recessed within the host material (42,52); and • characterised in that the fastener includes a tail end having an elongate lost-end driving shank portion of reduced diameter, sliding the tail end of the fastener into the axial recess, wherein the driving shank is dimensioned to engage the leading end of the drive adapter in a manner that confines the fastener axially and aligns the fastener longitudinally with the adapter; and in that the leading end of the adapter has a maximum external diameter that is smaller than the cross-sectional circumscribed diameter of the helical fastener. • providing a drive adapter having a substantially rigid and non-yielding body, said body having a leading end including an axial recess and a tail end including means to engage an impact-energy driving machine; • engaging the tail end of the adapter with an impact-energy driving machine; • aligning the fastener arrangement to a host material layer (42,52); • energising the fastener with the impact-energy driving machine via the adapter whereupon the fastener is impelled by a series of impacting forces to windingly cut helical grooves into the host material layer (42,52) and onwards into a subsequent layer (41,51) until the leading end of the adapter penetrates the near surface of the host material layer; • thereafter removing the leading end of the adapter from the host material, leaving the fastener's driving shank portion recessed within the host material (42,52); and • characterised in that the fastener includes a tail end having an elongate lost-end driving shank portion of reduced diameter, sliding the tail end of the fastener into the axial recess, wherein the driving shank is dimensioned to engage the leading end of the drive adapter in a manner that confines the fastener axially and aligns the fastener longitudinally with the adapter; and in that the leading end of the adapter has a maximum external diameter that is smaller than the cross-sectional circumscribed diameter of the helical fastener.
A ferrite-austenite stainless steel sheet for structural components excellent in workability and impact-absorbing properties, comprising, in terms of mass %, C: 0.001 to 0.1%, N: 0.01 to 0.15%, Si: 0.01 to 2%, Mn: 0.1 to 10%, P: 0.05% or less, S: 0.01% or less, Ni: 0.5 to 5%, Cr: 10 to 25%, Cu: 0.5 to 5%, Al: 0.02 to 5%, and optionally one or more selected from the group consisting of Ti: 0.5% or less, Nb: 0.5% or less, V: 0.5% or less, Mo: 2% or less, B: 0.0030% or less, Ca: 0.01% or less and Mg: 0.01% or less, with a remainder being Fe and unavoidable impurities, and containing a ferrite phase as a main phase and 10% or more of an austenite phase, wherein a work-hardening rate in a strain range of up to 30% is 1000 MPa or more which is measured by a static tensile testing and a difference between static and dynamic stresses which occur when 10% of deformation is caused is 150 MPa or more.
An apparatus for transporting containers in a system for production of packaged food products, said apparatus comprising: a transportation track, and a plurality of carriers for arrangement on the transportation track, the respective carrier comprising a support surface which is configured to carry one or more of the containers, wherein the transportation track comprises a first magnetic arrangement (22, 23), and the respective carrier comprises a second magnetic arrangement, said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) generate a movement of the respective carrier on the transportation track, wherein the control device is further configured to intermittently tilt the support surface of the respective carrier to slide the one or more containers along the support surface towards an end of the support surface characterized in that the control device is configured to intermittently tilt the support surface to slide the one or more containers along the support surface onto a stopper located on or at the support surface. a transportation track, and a plurality of carriers for arrangement on the transportation track, the respective carrier comprising a support surface which is configured to carry one or more of the containers, wherein the transportation track comprises a first magnetic arrangement (22, 23), and the respective carrier comprises a second magnetic arrangement, said apparatus further comprising a control device which is configured to operate one of the first and second magnetic arrangements (22, 23; 24) generate a movement of the respective carrier on the transportation track, wherein the control device is further configured to intermittently tilt the support surface of the respective carrier to slide the one or more containers along the support surface towards an end of the support surface characterized in that the control device is configured to intermittently tilt the support surface to slide the one or more containers along the support surface onto a stopper located on or at the support surface.
A method of controlling a marine vessel having first and second steerable propulsors (558P, 558S) and first and second trim deflectors (554P, 554S), comprising: receiving a vessel control signal that represents a yaw command or a roll command; generating at least a first set of actuator control signals (174, 175) and a second set of actuator control signals (176, 177) based on the vessel control signal; coupling the first set of actuator control signals (174,175) to and controlling the first and second steerable propulsors (558P, 558S) and coupling the second set of actuator control signals (176,177) to and controlling the first and/or second trim deflectors (554P, 554S); and using the first and second sets of coupled actuator control signals (174,175;176,177) in combination to control both the first and second steerable propulsors (558P, 558S) and the first and/or second trim deflectors (554P, 554S), such that no substantial rolling force is induced to the marine vessel when said vessel control signal is a yaw command and/or such that no substantial yawing force is induced to the marine vessel when said vessel control signal is a roll command. receiving a vessel control signal that represents a yaw command or a roll command; generating at least a first set of actuator control signals (174, 175) and a second set of actuator control signals (176, 177) based on the vessel control signal; coupling the first set of actuator control signals (174,175) to and controlling the first and second steerable propulsors (558P, 558S) and coupling the second set of actuator control signals (176,177) to and controlling the first and/or second trim deflectors (554P, 554S); and using the first and second sets of coupled actuator control signals (174,175;176,177) in combination to control both the first and second steerable propulsors (558P, 558S) and the first and/or second trim deflectors (554P, 554S), such that no substantial rolling force is induced to the marine vessel when said vessel control signal is a yaw command and/or such that no substantial yawing force is induced to the marine vessel when said vessel control signal is a roll command.