mhurhangee/ep-ind-claims huggingface dataset:
An energy absorbing device (32, 50, 74, 80) configured for impact energy absorption in a vehicle, comprising: a metal component (10,40, 72, 84) comprising greater than or equal to three walls (12, 14, 16; 42, 44, 46, 48) forming a metal component channel; and a plastic component (22, 28, 56, 70, 82) located in the metal component channel; characterized by: the plastic component having a honeycomb structure with a plurality of walls (24, 34) defining comb channels (26, 30) therein; wherein the plastic component is located in the metal component channel, wherein the plastic component and the metal component channel form a crash can, and wherein the plastic component is inseparable from the metal component without damage to at least one of the metal component and the plastic component. a metal component (10,40, 72, 84) comprising greater than or equal to three walls (12, 14, 16; 42, 44, 46, 48) forming a metal component channel; and a plastic component (22, 28, 56, 70, 82) located in the metal component channel; characterized by: the plastic component having a honeycomb structure with a plurality of walls (24, 34) defining comb channels (26, 30) therein; wherein the plastic component is located in the metal component channel, wherein the plastic component and the metal component channel form a crash can, and wherein the plastic component is inseparable from the metal component without damage to at least one of the metal component and the plastic component.
An information processing apparatus for noise reduction for an X-ray moving image including a plurality of continuous X-ray images, the apparatus comprising: difference processing means arranged to generate a difference image between a current X-ray image and a processed image obtained from previous X-ray images and stored in a memory; extraction means arranged to extract a line noise image including a line noise running in a predetermined direction in the difference image, by smoothing the difference image in the predetermined direction; calculation processing means (24, 25) arranged to multiply the extracted line noise image by a coefficient α and add the multiplied image to the current X-ray image, obtain a noise-reduced image; and storage means arranged to store the noise-reduced image in the memory as a new processed image to be provided to the difference processing means. difference processing means arranged to generate a difference image between a current X-ray image and a processed image obtained from previous X-ray images and stored in a memory; extraction means arranged to extract a line noise image including a line noise running in a predetermined direction in the difference image, by smoothing the difference image in the predetermined direction; calculation processing means (24, 25) arranged to multiply the extracted line noise image by a coefficient α and add the multiplied image to the current X-ray image, obtain a noise-reduced image; and storage means arranged to store the noise-reduced image in the memory as a new processed image to be provided to the difference processing means.
A tubular body label comprising a heat-shrunk white polyester film as a base material, which film is thermally shrunk in the film width direction as the main shrinkage direction and wherein the film is bonded at both edges in the film width direction forming the tubular body, the label having a right-angled tear strength in the direction orthogonal to the main shrinkage direction of 90 N/mm to 300 N/mm (JIS-K-7128), a tensile break strength in the direction orthogonal to the main shrinkage direction of 90 MPa or more and 250 MPa or less (JIS-K-7127), and a whiteness of 70 or more (JIS-L1015-1981-B method).
A transmission device comprising: an elimination unit (32 1) configured to eliminate null packets, NP, included in a division stream of a predetermined channel acquired by dividing an input stream configured by a plurality of packets into division streams of a plurality of channels and generates a NP-eliminated stream including deleted null packets, DNP, representing the number of eliminated NPs; a generation unit (33 1) configured to generate a stream of a base band, BB, frame of DVB-S2, said stream including the NP-eliminated stream and signaling as a size identifier representing a size of the DNP, wherein the size identifier is included in a BB header or in-band signaling of the BB frame; characterized in a time information generation unit configured to generate time information indicating information regarding transmission time of each packet of the division stream; and a synchronization unit (31 1) configured to add the time information to each packet of the division stream to supply to the elimination unit. an elimination unit (32 1) configured to eliminate null packets, NP, included in a division stream of a predetermined channel acquired by dividing an input stream configured by a plurality of packets into division streams of a plurality of channels and generates a NP-eliminated stream including deleted null packets, DNP, representing the number of eliminated NPs; a generation unit (33 1) configured to generate a stream of a base band, BB, frame of DVB-S2, said stream including the NP-eliminated stream and signaling as a size identifier representing a size of the DNP, wherein the size identifier is included in a BB header or in-band signaling of the BB frame; characterized in a time information generation unit configured to generate time information indicating information regarding transmission time of each packet of the division stream; and a synchronization unit (31 1) configured to add the time information to each packet of the division stream to supply to the elimination unit.
A method of manufacturing a vehicle tire, the tread portion of which comprises a poorly conducting tread layer that provides a ground contacting surface disposed in a radially outward part of the tread portion, and a conductive layer arranged underneath the tread layer, the method comprising providing a layered assembly of tread layer rubber and conductive layer rubber, and forming the assembly (21, 24) in a mould provided with a local recession in the mould surface, such that part of the assembly (21, 24) flows into the recession to form a protrusion comprising conductive layer rubber, and removing said protrusion to expose the conductive layer rubber, wherein the local recession in the mould surface is provided by a venting hole in the mould, and the venting hole is enlarged to such extent that part of the assembly (21, 24) flows into the venting hole to form the protrusion.
Packaging for housing a plurality of articles comprising an outer packaging, made of a first packaging material, with an outer packaging container and an outer packaging lid, an inner packaging for housing the articles, made of a second packaging material, with an inner packaging container and an inner packaging lid, and wherein the outer packaging is at least partially housing the inner packaging, wherein in a closed state of the packaging before the first opening thereof the inner packaging is fixedly attached via a first connection to an inner surface of the outer packaging lid, characterized in that at least one face of the outer packaging lid comprises a deformable section such that the first opening of the packaging requires a pressure to be applied upon said deformable section so as to break said first connection between the inner packaging and the inner surface of the outer packaging lid, wherein after breaking the first connection, the inner packaging is arranged to be moveable in a longitudinal direction in relation to the outer packaging. an inner packaging for housing the articles, made of a second packaging material, with an inner packaging container and an inner packaging lid, and wherein the outer packaging is at least partially housing the inner packaging, wherein in a closed state of the packaging before the first opening thereof the inner packaging is fixedly attached via a first connection to an inner surface of the outer packaging lid, characterized in that at least one face of the outer packaging lid comprises a deformable section such that the first opening of the packaging requires a pressure to be applied upon said deformable section so as to break said first connection between the inner packaging and the inner surface of the outer packaging lid, wherein after breaking the first connection, the inner packaging is arranged to be moveable in a longitudinal direction in relation to the outer packaging.
A method for handling call recording failures for a contact center comprising: receiving by a processor information on a first media controller currently assigned to a telephony call handled by resources associated with the contact center, the first media controller bridging a first media path between a first and a second communication device and recording, into a storage device, media exchanged in the first media path during the telephony call, wherein the bridging of the first media path includes establishing a first media session between the first communication device and the first media controller, and establishing a second media session between the first media controller and the second communication device, wherein the first media controller transmits and receives media to and from the first communication device via the established first media session; detecting by the processor failure of the first media controller during the telephony call, wherein the failure of the first media controller tears down the first media path; and in response to detecting the failure, bridging by the processor a second media path between the first and second communication devices until a second media controller is identified; and in response to the second media controller being identified, signaling the second media controller to bridge and record media exchanged during the telephony call. receiving by a processor information on a first media controller currently assigned to a telephony call handled by resources associated with the contact center, the first media controller bridging a first media path between a first and a second communication device and recording, into a storage device, media exchanged in the first media path during the telephony call, wherein the bridging of the first media path includes establishing a first media session between the first communication device and the first media controller, and establishing a second media session between the first media controller and the second communication device, wherein the first media controller transmits and receives media to and from the first communication device via the established first media session; detecting by the processor failure of the first media controller during the telephony call, wherein the failure of the first media controller tears down the first media path; and in response to detecting the failure, bridging by the processor a second media path between the first and second communication devices until a second media controller is identified; and in response to the second media controller being identified, signaling the second media controller to bridge and record media exchanged during the telephony call.
Method for welding components (1, 2) together, comprising the following steps: • providing a first component and a second component, • placing the two components (1, 2) side by side, • welding the two components (1, 2) together by means of a laser beam, wherein • in the first component, a slit extending through the first component is produced, the laser beam is directed into the region of the slit during welding, characterized in that • at least one of the two components (1, 2) is a body component of a vehicle body to be produced, • by repeatedly switching the laser beam on and off, a multiplicity of welding pulses, which are interrupted in each case by weld-free pause intervals in which the laser beam is switched off, are generated, • a local weld area is produced by each welding pulse, in which material of the two components (1, 2) is melted in a locally delimited manner and fused, wherein • individual ones of the weld areas which are produced by the welding pulses overlap one another, wherein • the laser beam remains stationary relative to the components (1, 2) during the individual welding pulses, as a result of which the respective weld area is permanently exposed to laser light during a welding pulse, and wherein • a weld area which is currently being produced and overlaps with a weld area which has already been produced is produced only when the weld area that has already been produced has already solidified or substantially solidified. • providing a first component and a second component, • placing the two components (1, 2) side by side, • welding the two components (1, 2) together by means of a laser beam, wherein • in the first component, a slit extending through the first component is produced, • at least one of the two components (1, 2) is a body component of a vehicle body to be produced, • by repeatedly switching the laser beam on and off, a multiplicity of welding pulses, which are interrupted in each case by weld-free pause intervals in which the laser beam is switched off, are generated, • a local weld area is produced by each welding pulse, in which material of the two components (1, 2) is melted in a locally delimited manner and fused, wherein • individual ones of the weld areas which are produced by the welding pulses overlap one another, wherein • the laser beam remains stationary relative to the components (1, 2) during the individual welding pulses, as a result of which the respective weld area is permanently exposed to laser light during a welding pulse, and wherein • a weld area which is currently being produced and overlaps with a weld area which has already been produced is produced only when the weld area that has already been produced has already solidified or substantially solidified.
A plate heat exchanger, comprising: a plurality of heat exchanging plates; a heat exchanging space formed between adjacent heat exchanging plates of said plurality of heat exchanging plates; a heat exchanging channel formed in the heat exchanging plates, said heat exchanging channel being used for a heat exchanging medium to flow into or out of the heat exchanger and being constituted by openings in the plurality of heat exchanging plates; and a reinforcer used to reinforce the area around the opening of at least one heat exchanging plate, wherein the reinforcer comprises a plate-shaped body and a projection portion protruding from the center of the plate-shaped body, characterized in that the plate heat exchanger further comprises: a backplate, said backplate being provided on one side, opposite a channel opening of said heat exchanging channel, of the heat exchanger, said plate-shaped body being provided between the backplate and a first heat exchanging plate adjacent to the backplate, the projection portion protruding towards the side of the channel opening, and said plate-shaped body being in direct contact with and connected to at least one of the backplate and the first heat exchanging plate wherein the projection portion extends through the opening of the first heat exchanging plate and the opening of the second heat exchanging plate adjacent to the first heat exchanging plate into between the second heat exchanging plate and a third heat exchanging plate adjacent to the second heat exchanging plate. a plurality of heat exchanging plates; a heat exchanging space formed between adjacent heat exchanging plates of said plurality of heat exchanging plates; a heat exchanging channel formed in the heat exchanging plates, said heat exchanging channel being used for a heat exchanging medium to flow into or out of the heat exchanger and being constituted by openings in the plurality of heat exchanging plates; and a reinforcer used to reinforce the area around the opening of at least one heat exchanging plate, wherein the reinforcer comprises a plate-shaped body and a projection portion protruding from the center of the plate-shaped body, characterized in that the plate heat exchanger further comprises: a backplate, said backplate being provided on one side, opposite a channel opening of said heat exchanging channel, of the heat exchanger, said plate-shaped body being provided between the backplate and a first heat exchanging plate adjacent to the backplate, the projection portion protruding towards the side of the channel opening, and said plate-shaped body being in direct contact with and connected to at least one of the backplate and the first heat exchanging plate wherein the projection portion extends through the opening of the first heat exchanging plate and the opening of the second heat exchanging plate adjacent to the first heat exchanging plate into between the second heat exchanging plate and a third heat exchanging plate adjacent to the second heat exchanging plate.
A controller for a rotary wing unmanned aerial vehicle having a plurality of rotary motors, the controller comprising: a processing unit and memory including code, which when executed controls the processing unit to: determine a net drag of atmospheric forces acting on the aerial vehicle as the controller controls the plurality of rotary motors to propel the aerial vehicle to move in a direction along a path; determine a yaw setting for the aerial vehicle based on the net drag, wherein the yaw defines an angle between an axis running from a first portion to a second portion of the aerial vehicle and the direction of movement of the aerial vehicle along the path, wherein the first portion is a leading edge in the direction of movement of the aerial vehicle; and; set the yaw of the aerial vehicle based on the determined yaw setting, wherein the aerial vehicle is positioned according to the angle defined by the yaw by controlling the relative speeds of each of the plurality of rotary motors as the plurality of rotary motors 5 propel the aerial vehicle to move in the direction of movement; characterized in that if the aerial vehicle is to move forward in the direction of movement, the yaw setting of the aerial vehicle is determined and set based on the net drag such that the influence of net drag on the forward movement of the aerial vehicle is minimized; and if the aerial vehicle is to stop or decelerate, the yaw setting of the aerial vehicle is determined and set based on the net drag so that the net drag aids the aerial vehicle in stopping or decelerating. determine a net drag of atmospheric forces acting on the aerial vehicle as the controller controls the plurality of rotary motors to propel the aerial vehicle to move in a direction along a path; determine a yaw setting for the aerial vehicle based on the net drag, wherein the yaw defines an angle between an axis running from a first portion to a second portion of the aerial vehicle and the direction of movement of the aerial vehicle along the path, wherein the first portion is a leading edge in the direction of movement of the aerial vehicle; and; set the yaw of the aerial vehicle based on the determined yaw setting, wherein the aerial vehicle is positioned according to the angle defined by the yaw by controlling the relative speeds of each of the plurality of rotary motors as the plurality of rotary motors 5 propel the aerial vehicle to move in the direction of movement; characterized in that if the aerial vehicle is to move forward in the direction of movement, the yaw setting of the aerial vehicle is determined and set based on the net drag such that the influence of net drag on the forward movement of the aerial vehicle is minimized; and if the aerial vehicle is to stop or decelerate, the yaw setting of the aerial vehicle is determined and set based on the net drag so that the net drag aids the aerial vehicle in stopping or decelerating.
Control system for operating a crane, comprising a control switch for operating the crane, wherein the control switch comprises a first interface which is designed for transmitting signals between the control switch and a control unit of the crane, and comprising a mobile device which is a tablet computer and/or a smartphone, wherein the functional scope of the control switch is extended with functions of the mobile device, characterised in that the control switch has a second interface which is designed for transmitting signals between the mobile device and the control switch in order to extend the functional scope of the control switch with functions of the mobile device, and in that the mobile device is connectable to the control switch in a signal-transmitting manner via the second interface such that the mobile device connectable to the control switch in a signal-transmitting manner via the second interface is connectable to the control unit in a signal-transmitting manner via the first interface, and so the functional scope of the control switch is extended with functions of the mobile device.
A method for producing a metal-clad laminate using roll-to-roll processing, the metal-clad laminate comprising a thermoplastic liquid crystal polymer film and a metal sheet(s) bonded to at least one surface of the thermoplastic liquid crystal polymer film, the metal sheet having a surface with a ten-point average roughness (Rz) of 5.0 μm or less to be bonded to the thermoplastic liquid crystal polymer film, the method at least comprising: preparing the laminate comprising the metal sheet(s) bonded to the thermoplastic liquid crystal polymer film, characterized in that the method further comprises dry-treating the laminate by subjecting the laminate passed through a dry zone satisfying the following conditions and: the dry treatment is carried out at a drying temperature of lower than the melting point of the thermoplastic liquid crystal polymer film, the dry treatment is carried out for a drying period of 10 seconds or longer, and heat-treating the dried laminate by subjecting the laminate passed through a heating zone on a temperature condition of not lower than the melting point of the thermoplastic liquid crystal polymer film successively after the dry treatment. preparing the laminate comprising the metal sheet(s) bonded to the thermoplastic liquid crystal polymer film, characterized in that the method further comprises dry-treating the laminate by subjecting the laminate passed through a dry zone satisfying the following conditions and: the dry treatment is carried out at a drying temperature of lower than the melting point of the thermoplastic liquid crystal polymer film, the dry treatment is carried out for a drying period of 10 seconds or longer, and the dry treatment is carried out at a drying temperature of lower than the melting point of the thermoplastic liquid crystal polymer film, the dry treatment is carried out for a drying period of 10 seconds or longer, and heat-treating the dried laminate by subjecting the laminate passed through a heating zone on a temperature condition of not lower than the melting point of the thermoplastic liquid crystal polymer film successively after the dry treatment.