mhurhangee/ep-ind-claims huggingface dataset:
An automatic high-speed rotary atomizing device, comprising a rotary spray head, characterized in that, the rotary spray head comprises: an upper portion that is connected to pressurized fluid and is stationary; and a lower portion that is provided with one or more spray nozzles (1, 3) having a slanted surface and is connected to the upper portion via a bearing (5, 6, 56), wherein, the slanted surface of the spray nozzle forms a sputtering spread surface with a curvature and is able to guide the pressurized fluid to form a fan-shaped spreading face after being sprayed out from the spray nozzle, so that a fan-shaped atomizing zone is formed when the spray nozzle is rotated, the spraying of the pressurized fluid out from the spray nozzle (1, 3) causes part of kinetic energy of the pressurized fluid to generate a counterforce to propel the entire lower portion of the spray head to rotate at a high speed, the pressurized fluid being guided by the sputtering spread surface of the spray nozzle (1, 3) to convert most of the kinetic energy of the pressurized fluid into kinetic energy of the rotating spray nozzle (1, 3) and surface energy that facilitates atomization of the pressurized fluid, thereby forming high speed rotation of the spray nozzle (1, 3) and a large-scale atomized, dispersed and swirling system. an upper portion that is connected to pressurized fluid and is stationary; and a lower portion that is provided with one or more spray nozzles (1, 3) having a slanted surface and is connected to the upper portion via a bearing (5, 6, 56), wherein, the slanted surface of the spray nozzle forms a sputtering spread surface with a curvature and is able to guide the pressurized fluid to form a fan-shaped spreading face after being sprayed out from the spray nozzle, so that a fan-shaped atomizing zone is formed when the spray nozzle is rotated, the spraying of the pressurized fluid out from the spray nozzle (1, 3) causes part of kinetic energy of the pressurized fluid to generate a counterforce to propel the entire lower portion of the spray head to rotate at a high speed, the pressurized fluid being guided by the sputtering spread surface of the spray nozzle (1, 3) to convert most of the kinetic energy of the pressurized fluid into kinetic energy of the rotating spray nozzle (1, 3) and surface energy that facilitates atomization of the pressurized fluid, thereby forming high speed rotation of the spray nozzle (1, 3) and a large-scale atomized, dispersed and swirling system.
An electrically conductive surfacing film suitable for an outermost conductive layer to provide lighting strike protection and electromagnetic interference shielding in aircraft components, the surfacing film comprising: a thermosetting polymer composition comprising: at least one thermosetting resin; at least one conductive additive comprising greater than about 35 wt. % silver flakes, on the basis of the total weight of the composition; and chain extension agents and tougheners; wherein the resistivity of the surfacing film is less than about 500 mΩ/sq. a thermosetting polymer composition comprising: at least one thermosetting resin; at least one conductive additive comprising greater than about 35 wt. % silver flakes, on the basis of the total weight of the composition; and chain extension agents and tougheners; wherein the resistivity of the surfacing film is less than about 500 mΩ/sq. at least one thermosetting resin; at least one conductive additive comprising greater than about 35 wt. % silver flakes, on the basis of the total weight of the composition; and chain extension agents and tougheners; wherein the resistivity of the surfacing film is less than about 500 mΩ/sq.
Method for continuously producing a multi-layer material structure, comprising the method steps of - feeding a fibre-reinforced plastic material serving as a carrier material by means of a first feed unit, the bending stiffness of the carrier material being at least 50 N/mm 2, - feeding a composite material by means of a second feed unit, the composite material having a foam adhesive material at least in sections, - heating the adhesive material using a heat source configured as an open burner flame, - continuously joining the heated composite material to the carrier material to form the multi-layer material structure by means of a joining unit. - feeding a fibre-reinforced plastic material serving as a carrier material by means of a first feed unit, the bending stiffness of the carrier material being at least 50 N/mm 2, - feeding a composite material by means of a second feed unit, the composite material having a foam adhesive material at least in sections, - heating the adhesive material using a heat source configured as an open burner flame, - continuously joining the heated composite material to the carrier material to form the multi-layer material structure by means of a joining unit.
A method for filtering location data, from a plurality of devices in a wireless network, for use in a mobility analysis of a group of devices, the method being performed by a data collection and analysis node, the method comprising the steps of: receiving the location data from the plurality of devices, the location data from each device including a unique user identifier; determining (402, 403) devices that belong to the group of devices based on the unique user identifier received from each device; forwarding the location data for the devices determined to belong to the group of devices to an analyser module (309a, 610) for use in the mobility analysis; characterised by maintaining a device database including a plurality of device records, wherein each device record indicates whether a device associated with a device record belongs to the group of devices, wherein the step of determining (402, 403) the devices that belong to the group of devices further comprises querying the device database using the unique user identifiers to determine the devices that belong to the group of devices and wherein each device record associated with a device that does not belong to the group of devices includes a timestamp indicating when the device record indicated that the associated device does not belong to the group of devices, and wherein the step of maintaining the device database further includes updating each device record to indicate that the associated device belongs to the group of devices after a predetermined period of time has elapsed. receiving the location data from the plurality of devices, the location data from each device including a unique user identifier; determining (402, 403) devices that belong to the group of devices based on the unique user identifier received from each device; forwarding the location data for the devices determined to belong to the group of devices to an analyser module (309a, 610) for use in the mobility analysis; characterised by maintaining a device database including a plurality of device records, wherein each device record indicates whether a device associated with a device record belongs to the group of devices, wherein the step of determining (402, 403) the devices that belong to the group of devices further comprises querying the device database using the unique user identifiers to determine the devices that belong to the group of devices and wherein each device record associated with a device that does not belong to the group of devices includes a timestamp indicating when the device record indicated that the associated device does not belong to the group of devices, and wherein the step of maintaining the device database further includes updating each device record to indicate that the associated device belongs to the group of devices after a predetermined period of time has elapsed.
An apparatus comprising: means for receiving (210, S5.1, S10.1), at a target user equipment, UE, (100, 910) and from a supporting UE, a signal including information indicative of supporting UE measurements, performed by the supporting UE, of signals transmitted from the target UE to the supporting UE (110, 920) via a multipath communications channel, the supporting UE measurements performed by the supporting UE including delay and angle measurements of the signals transmitted from the target UE to the supporting UE via the multipath communications channel; means for time-aligning (214, S5.2, S10.2), by the target UE, the supporting UE measurements performed by the supporting UE with target UE measurements, performed by the target UE, of signals transmitted from the supporting UE to the target UE via the multipath communications channel, the target UE measurements performed by the target UE including delay and angle measurements for the signals transmitted from the supporting UE to the target UE via the multipath communications channel; means for determining (215, S5.3, S10.3), by the target UE and based on the time-aligned measurements, an association between a component of the target UE measurements and at least one respective component of the supporting UE measurements, wherein the associated components are determined to correspond to a particular reflector (150, 950) in an environment of the target UE; and means for determining (216, S5.4, S10.4), by the target UE and based on the associated components, location information for the particular reflector. means for receiving (210, S5.1, S10.1), at a target user equipment, UE, (100, 910) and from a supporting UE, a signal including information indicative of supporting UE measurements, performed by the supporting UE, of signals transmitted from the target UE to the supporting UE (110, 920) via a multipath communications channel, the supporting UE measurements performed by the supporting UE including delay and angle measurements of the signals transmitted from the target UE to the supporting UE via the multipath communications channel; means for time-aligning (214, S5.2, S10.2), by the target UE, the supporting UE measurements performed by the supporting UE with target UE measurements, performed by the target UE, of signals transmitted from the supporting UE to the target UE via the multipath communications channel, the target UE measurements performed by the target UE including delay and angle measurements for the signals transmitted from the supporting UE to the target UE via the multipath communications channel; means for determining (215, S5.3, S10.3), by the target UE and based on the time-aligned measurements, an association between a component of the target UE measurements and at least one respective component of the supporting UE measurements, wherein the associated components are determined to correspond to a particular reflector (150, 950) in an environment of the target UE; and means for determining (216, S5.4, S10.4), by the target UE and based on the associated components, location information for the particular reflector.
An autoinjector including a housing, in which can be mounted a syringe having a plunger, a barrel and needle at one end thereof through which medicament can be delivered to an injection site; a syringe support means capable of causing said syringe to move therewith along an axial path with respect to said housing; biasing means capable of biasing said syringe support means so that said needle is normally inside said housing, and blocking means (100a/200a') selectively moveable relative to the syringe support means by a user from a first position in which rearward movement of the syringe support means along said axial path is substantially prevented, to a second position in which rearward movement of the syringe support means along said axial path relative to said housing is possible and said biasing means causes said needle to retract inside said housing, wherein said blocking means is selectively moveable by a user from said first position to said second position by the release or reduction of a forward force previously-applied by the user; characterised in that said blocking means comprises a releasable latch (100a,200a') between said housing and said syringe support means.
A compound represented by the formula: wherein ring A represents a benzene ring optionally further substituted by 1 to 3 substituents selected from a C 1-6 alkyl group optionally substituted by 1 to 3 substituents selected from (i) a carboxy group, (ii) a mono- or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 substituents selected from: a carboxy group; a C 1-6 alkylsulfonyl group; a carbamoyl group; and a sulfo group, and (iii) a 3- to 14-membered non-aromatic heterocyclylcarbonyl group optionally substituted by a carboxy group(s), a 3- to 14-membered non-aromatic heterocyclic group optionally substituted by 1 to 3 substituents selected from (i) a C 1-6 alkyl-carbonyl group optionally substituted by 1 to 3 substituents selected from a carboxy group; and a mono or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 carboxy groups, (ii) a C 1-6 alkyl group optionally substituted by 1 to 3 carboxy groups, a C 3-10 cycloalkyl group optionally substituted by 1 to 3 C 1-6 alkyl groups, and a C 6-14 aryl group, and L 1 and L 2 each independently represent a bond or a linear C 1-3 alkylene group. a C 1-6 alkyl group optionally substituted by 1 to 3 substituents selected from (i) a carboxy group, (ii) a mono- or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 substituents selected from: a carboxy group; a C 1-6 alkylsulfonyl group; a carbamoyl group; and a sulfo group, and (iii) a 3- to 14-membered non-aromatic heterocyclylcarbonyl group optionally substituted by a carboxy group(s), (i) a carboxy group, (ii) a mono- or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 substituents selected from: a carboxy group; a C 1-6 alkylsulfonyl group; a carbamoyl group; and a sulfo group, and (iii) a 3- to 14-membered non-aromatic heterocyclylcarbonyl group optionally substituted by a carboxy group(s), a 3- to 14-membered non-aromatic heterocyclic group optionally substituted by 1 to 3 substituents selected from (i) a C 1-6 alkyl-carbonyl group optionally substituted by 1 to 3 substituents selected from a carboxy group; and a mono or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 carboxy groups, (ii) a C 1-6 alkyl group optionally substituted by 1 to 3 carboxy groups, (i) a C 1-6 alkyl-carbonyl group optionally substituted by 1 to 3 substituents selected from a carboxy group; and a mono or di-C 1-6 alkyl-carbamoyl group optionally substituted by 1 to 3 carboxy groups, (ii) a C 1-6 alkyl group optionally substituted by 1 to 3 carboxy groups, a C 3-10 cycloalkyl group optionally substituted by 1 to 3 C 1-6 alkyl groups, and a C 6-14 aryl group, and L 1 and L 2 each independently represent a bond or a linear C 1-3 alkylene group.
An apparatus comprising: a polarization-diversity optical hybrid, the polarization-diversity optical hybrid having a first input for receiving a multi-wavelength signal including M sub-channels. each sub-channel at a different wavelength, the optical hybrid having a second input for receiving a reference light source including M continuous-wave references, each continuous-wave reference at a different wavelength that approximates a center wavelength of one of the M sub-channels, the optical hybrid having at least four outputs; at least four Wavelength De-Multiplexing, W-DMUX, filters, each W-DMUX filter having a W-DMUX input, each of the W-DMUX inputs provided a corresponding one of the outputs of the optical hybrid, each W-DMUX filter providing M filtered optical channel outputs; 4M detectors, each detector for converting at least one of the filtered channel outputs into a corresponding electrical signal; and 4M analog-to-digital converters, ADC, each ADC for converting one of the electrical signals into a corresponding digital signal; wherein M is an integer greater than one. a polarization-diversity optical hybrid, the polarization-diversity optical hybrid having a first input for receiving a multi-wavelength signal including M sub-channels. each sub-channel at a different wavelength, the optical hybrid having a second input for receiving a reference light source including M continuous-wave references, each continuous-wave reference at a different wavelength that approximates a center wavelength of one of the M sub-channels, the optical hybrid having at least four outputs; at least four Wavelength De-Multiplexing, W-DMUX, filters, each W-DMUX filter having a W-DMUX input, each of the W-DMUX inputs provided a corresponding one of the outputs of the optical hybrid, each W-DMUX filter providing M filtered optical channel outputs; 4M detectors, each detector for converting at least one of the filtered channel outputs into a corresponding electrical signal; and 4M analog-to-digital converters, ADC, each ADC for converting one of the electrical signals into a corresponding digital signal; wherein M is an integer greater than one.
Valve, in particular radiator valve, having a housing (2, 3), having an inlet, having a first outlet, having at least one second outlet, having a valve seat arrangement (10, 11) which has one valve seat (10, 11) for each outlet (13, 14), and having a valve element which interacts with the valve seat arrangement (10, 11) and which is movable along an actuation axis and which, in the closed state, forms in each case one closing line with the valve seat assigned to the first outlet and with the valve seat assigned to the at least one second outlet, wherein the at least two closing lines are arranged on a common valve element, and the closing lines are offset relative to one another with a predetermined spacing along the actuation axis, characterized in that the valve element or the valve seat arrangement (10, 11) is deformable by the spacing at least in the region of one closing line, wherein the valve is designed such that, in a fully opened position of the valve, a flow of heat carrier medium is possible from the inlet both to the first outlet and to the at least one second outlet.
Building panels provided with a locking system for vertical locking of a first and a second building panel by a vertical displacement of said first and second building panel (1,1') relative each other, a displaceable tongue is inserted into a sidewardly open displacement groove provided at an edge of the first building panel, said displaceable tongue cooperates with a tongue groove provided at an adjacent edge of the second building panel for locking the edge and the adjacent edge vertically, a strip protrudes: below the displacement groove and outwardly beyond the upper part of the edge; or below the tongue groove and outwardly beyond the upper part of the adjacent edge, characterised in that the displaceable tongue comprises a main tongue body extending along the edge of the first building panel and separate flexible spring parts attached to the main tongue body, and that the separate spring parts are located in an inner part of the displacement groove and spaced from each other in the length direction of the main tongue body, and said separate spring parts comprise an upwardly or downwardly extending fixing connection part for attaching to the main tongue body. below the displacement groove and outwardly beyond the upper part of the edge; or below the tongue groove and outwardly beyond the upper part of the adjacent edge, characterised in that the displaceable tongue comprises a main tongue body extending along the edge of the first building panel and separate flexible spring parts attached to the main tongue body, and that the separate spring parts are located in an inner part of the displacement groove and spaced from each other in the length direction of the main tongue body, and said separate spring parts comprise an upwardly or downwardly extending fixing connection part for attaching to the main tongue body. the displaceable tongue comprises a main tongue body extending along the edge of the first building panel and separate flexible spring parts attached to the main tongue body, and that the separate spring parts are located in an inner part of the displacement groove and spaced from each other in the length direction of the main tongue body, and said separate spring parts comprise an upwardly or downwardly extending fixing connection part for attaching to the main tongue body.
A wooden spring formed of a strip of wood for forming wooden spring fabric, wherein the wooden spring has a homogeneous shape, the wooden springs are interlaceable side by side with at least two other wooden springs and the wooden spring comprises - a helix having a first end and a second end, wherein the first end has diameter and the second end has diameter, and - plurality of coils between the first end and second end of the helix, wherein an average thickness (a) of the helix is 0.2-2.0 mm; an average width (b, b2) of the helix is 2-10 mm; an average diameter (d) of the coil is 6-60 mm; an average pitch (s) of the coil is 4-40 mm; and a stretched-out length of the wooden spring is 10-5000 mm. - a helix having a first end and a second end, wherein the first end has diameter and the second end has diameter, and - plurality of coils between the first end and second end of the helix, an average thickness (a) of the helix is 0.2-2.0 mm; an average width (b, b2) of the helix is 2-10 mm; an average diameter (d) of the coil is 6-60 mm; an average pitch (s) of the coil is 4-40 mm; and a stretched-out length of the wooden spring is 10-5000 mm.
An optical apparatus comprising: a light-quantity-adjusting unit; a first lens unit (L3a); a second lens unit (L3b); an image capturing device, wherein the first lens unit (L3a) is disposed farther from the image capturing device than the light-quantity-adjusting unit and the second lens unit (L3b) is disposed closer to the image capturing device than the light-quantity-adjusting unit; a holding member holding the first lens unit (L3a) and the second lens unit (L3b), and wherein the holding member is characterized by a first holder holding the first lens unit (L3a); a second holder holding the second lens unit (L3b); and a connector connecting the first holder and the second holder in a direction parallel to an optical axis through the first lens unit (L3a) and the second lens unit (L3b), wherein, the light-quantity-adjusting unit is arranged to be inserted and disposed into a space defined by the first holder, the second holder and the connector, in a second direction which is orthogonal to the optical axis, and an actuator arranged to drive the holding member in a direction orthogonal to the optical axis and, a base member movably supporting the holding member in the orthogonal-to-optical-axis direction, wherein the light-quantity-adjust unit is fixed to the base member such that the light-quantity-adjust unit cannot move with respect to the base member. a light-quantity-adjusting unit; a first lens unit (L3a); a second lens unit (L3b); an image capturing device, a holding member holding the first lens unit (L3a) and the second lens unit (L3b), and wherein the holding member is characterized by a first holder holding the first lens unit (L3a); a second holder holding the second lens unit (L3b); and a connector connecting the first holder and the second holder in a direction parallel to an optical axis through the first lens unit (L3a) and the second lens unit (L3b), wherein,