mhurhangee/ep-ind-claims huggingface dataset:
A brush sealing system for sealing a gap between components of a thermal gas turbine that are movable relative to each other, comprising: - a brush sealing housing that receives at least one brush head of a brush seal in order to encase the brush seal or secure its position, and - a support element by means of which a brush bundle protruding from the brush head of the brush seal can be supported against deflection, wherein the support element and the brush sealing housing are formed as separate components, characterised in that the brush sealing system comprises a reinforcement element that is fixed to the brush sealing housing, wherein the support element is disposed between the brush sealing housing and the reinforcement element. - a brush sealing housing that receives at least one brush head of a brush seal in order to encase the brush seal or secure its position, and - a support element by means of which a brush bundle protruding from the brush head of the brush seal can be supported against deflection,
Container for receiving nutrient media, in particular for culturing microorganisms, cell cultures and bacteria, having a dish and a lid which closes the dish, the dish comprising a dish base in the form of a circular surface, and an annular dish wall projecting from the dish base, the lid comprising a lid base in the form of a circular surface, and an annular lid wall projecting from the lid base, the lid wall having a larger inner diameter than the outer diameter of the dish wall, or the dish wall having a larger inner diameter than the outer diameter of the lid wall, such that in order to close the dish the lid wall can be slipped over the dish wall or the dish wall can be slipped over the lid wall, engagement means (7, 8) being associated with the dish and the lid, which engagement means, when mutually engaged, prevent an unintentional disengagement of the dish and the lid, the engagement means of the dish being designed as clamp-like flanges for encompassing or engaging the engagement means of the lid, and the flanges extending orthogonally from an edge region of the dish base and having a shoulder which is responsible for the holding or the clamping effect, characterised in that the engagement means of the lid, seen equally from both sides in the circumferential direction of the lid, have wedge surfaces or elevations of different heights, such that the engagement means of the lid, seen from both sides in the circumferential direction of the lid, can be inserted with a different clamping and sealing effect into the engagement means of the dish, namely into the region under the shoulder.
A replaceable cutting insert having an insert longitudinal axis defining opposite forward and rear directions (D F, D R) and further having an insert axial plane containing the insert longitudinal axis, the cutting insert comprising: opposing insert inner and outer side surfaces (28, 30) and an insert peripheral surface extending therebetween, the insert peripheral surface comprising opposing insert front and rear end surfaces (34, 36) and opposing insert upper and lower surfaces (38, 40) connecting the insert front and rear end surfaces (34, 36); a cutting portion comprising a primary cutting edge formed at the intersection of the insert front end surface and the insert upper surface; and a mounting portion, connected to the cutting portion, and comprising: two spaced apart peripheral abutment ridges (58, 60), distal the insert outer side surface, and extending along the insert rear end surface and the insert lower surface, respectively, and converging towards each other at an acute insert wedge angle (θ) in a rearward direction (D R) of the cutting insert, away from the primary cutting edge; wherein: the mounting portion comprises an insert through bore passing through the insert inner and outer side surfaces (28, 30) along a through bore axis; characterized in that each peripheral abutment ridge (58, 60) is located closer to the insert inner side surface than to the insert outer side surface. opposing insert inner and outer side surfaces (28, 30) and an insert peripheral surface extending therebetween, the insert peripheral surface comprising opposing insert front and rear end surfaces (34, 36) and opposing insert upper and lower surfaces (38, 40) connecting the insert front and rear end surfaces (34, 36); a cutting portion comprising a primary cutting edge formed at the intersection of the insert front end surface and the insert upper surface; and a mounting portion, connected to the cutting portion, and comprising: two spaced apart peripheral abutment ridges (58, 60), distal the insert outer side surface, and extending along the insert rear end surface and the insert lower surface, respectively, and converging towards each other at an acute insert wedge angle (θ) in a rearward direction (D R) of the cutting insert, away from the primary cutting edge; wherein: the mounting portion comprises an insert through bore passing through the insert inner and outer side surfaces (28, 30) along a through bore axis;
An assembly for shielding circuitry of an electronic device from electromagnetic interference ("EMI"), the assembly comprising an EMI shielding material disposed intermediate a first and a second surface of the device in which one of the first and second surfaces of the device is formed from aluminium or an alloy thereof, the material comprising an admixture of: (a) an elastomeric polymeric component, and (b) a filler component comprising aluminium particles, characterised in that the particles are electrolessly-plated with a plating comprising a nickel-phosphorous alloy. (a) an elastomeric polymeric component, and (b) a filler component comprising aluminium particles,
A handpiece (110, 200, 400, 500, 600) configured for use in a medical system, comprising: a sleeve (203, 408, 507, 607) comprising a plurality of port openings (405, 406, 505, 506, 605, 606) configured to enable fluid to pass therethrough; a plurality of fluid channels (401, 402, 501, 502, 601, 602) disposed within the handpiece, characterised in that: each of the plurality of fluid channels is connected to a respective one of the plurality of port openings (405, 406, 505, 506, 605, 606); and further comprising a plurality of fluid flow restrictors (403, 404, 503, 504, 603, 604) disposed within the handpiece (110, 200, 400, 500, 600), each of the plurality of fluid flow restrictors configured to restrict fluid flow of a respective one of the plurality of fluid channels (401, 402, 501, 502, 601, 602) through the respective port opening (405, 406, 505, 506, 605, 606); wherein the handpiece (110, 200, 400, 500, 600) is configured to receive a signal from a control device (104, 800) configured to receive input from a user, wherein the signal controls an amount of fluid provided by each fluid flow restrictor (403, 404, 503, 504, 603, 604) based on the input received from the user to control the direction of fluid flow out of the port openings. a sleeve (203, 408, 507, 607) comprising a plurality of port openings (405, 406, 505, 506, 605, 606) configured to enable fluid to pass therethrough; a plurality of fluid channels (401, 402, 501, 502, 601, 602) disposed within the handpiece, characterised in that: each of the plurality of fluid channels is connected to a respective one of the plurality of port openings (405, 406, 505, 506, 605, 606); and further comprising a plurality of fluid flow restrictors (403, 404, 503, 504, 603, 604) disposed within the handpiece (110, 200, 400, 500, 600), each of the plurality of fluid flow restrictors configured to restrict fluid flow of a respective one of the plurality of fluid channels (401, 402, 501, 502, 601, 602) through the respective port opening (405, 406, 505, 506, 605, 606); wherein the handpiece (110, 200, 400, 500, 600) is configured to receive a signal from a control device (104, 800) configured to receive input from a user, wherein the signal controls an amount of fluid provided by each fluid flow restrictor (403, 404, 503, 504, 603, 604) based on the input received from the user to control the direction of fluid flow out of the port openings.
Electromechanical power steering for motor vehicles, with a steering gearbox in which a belt drive is provided between a servo motor and a gear drive which has a belt (3, 13) and two belt pulleys (1, 11) coupled by means of the belt (3, 13), wherein the belt (3, 13) has a concave inner contour seen from the belt pulley (1, 11) transverse to its running direction and in that corresponding belt pulleys (1, 11) are provided transverse to the rotational direction with a corresponding convex outer contour (2, 12), wherein an edge region of the belt (3, 13) encompasses the convex outer contour (2, 12) of the belt pulley (1, 11) from outside, characterised in that the belt (3, 13) is a pulley flanges belt.
An electronic device comprising: a housing for attachment to an injection device; a first sensor assembly comprising a first coil and two magnets (402a, 404a) of opposite polarity, wherein the first coil is configured to provide a first voltage pulse as a first Wiegand wire of the injection device moves from a first position proximate to one of the magnets of the first sensor assembly to a second position proximate to the other magnet of the first sensor assembly; and one or more processors configured to enter an enabled state from a sleep state after receiving the first voltage pulse from the first coil. a housing for attachment to an injection device; a first sensor assembly comprising a first coil and two magnets (402a, 404a) of opposite polarity, wherein the first coil is configured to provide a first voltage pulse as a first Wiegand wire of the injection device moves from a first position proximate to one of the magnets of the first sensor assembly to a second position proximate to the other magnet of the first sensor assembly; and one or more processors configured to enter an enabled state from a sleep state after receiving the first voltage pulse from the first coil.
An injectable composition comprising: (a) a calcium salt-containing component, wherein the calcium salt-containing component comprises amorphous calcium phosphate, crystalline calcium phosphate, CaHPO 4, CaHPO 4 •H 2 O, α-Ca 3 (PO 4) 2, α-bar-Ca 3 (PO 4) 2, β-Ca 3 (PO 4) 2, γ-Ca 3 (PO 4) 2, Ca 5 (PO 4) 3 OH, Ca 10 (PO 4) 6 2, Ca 4 O(PO 4) 2, CaP 4 O 11, α-Ca 2 P 2 O 7, β-Ca 2 P 2 O 7, γ-Ca 2 P 2 O 7, Ca(H 2 PO 4) 2 •nH 2 O, where n is a real number from 0 to 5, Ca 8 H 2 (PO 4) 6 •5H 2 O, calcium pyrophosphate; Ca(SO 4) 2, α-Ca(SO 4) 2 •1/2H 2 O, or β-Ca(SO 4) 2 •1/2H 2 O; or any combination thereof; (b) a flow additive; and (c) from 1% to 5% by weight of discrete γ-irradiated fibers, that are resorbable homopolymers or copolymers, that have a length to diameter or longest width aspect ratio from 50:1 to 1000:1, and have a fiber length of between 0.5 mm and 1.5 mm; and wherein the fibers comprise a poly (L-lactide-co- glycolide) copolymer which comprises at least about 15% by weight of L-lactide component repeat units and at least about 15% by weight of glycolide component repeat units. (a) a calcium salt-containing component, wherein the calcium salt-containing component comprises amorphous calcium phosphate, crystalline calcium phosphate, CaHPO 4, CaHPO 4 •H 2 O, α-Ca 3 (PO 4) 2, α-bar-Ca 3 (PO 4) 2, β-Ca 3 (PO 4) 2, γ-Ca 3 (PO 4) 2, Ca 5 (PO 4) 3 OH, Ca 10 (PO 4) 6 2, Ca 4 O(PO 4) 2, CaP 4 O 11, α-Ca 2 P 2 O 7, β-Ca 2 P 2 O 7, γ-Ca 2 P 2 O 7, Ca(H 2 PO 4) 2 •nH 2 O, where n is a real number from 0 to 5, Ca 8 H 2 (PO 4) 6 •5H 2 O, calcium pyrophosphate; Ca(SO 4) 2, α-Ca(SO 4) 2 •1/2H 2 O, or β-Ca(SO 4) 2 •1/2H 2 O; or any combination thereof; (b) a flow additive; and (c) from 1% to 5% by weight of discrete γ-irradiated fibers, that are resorbable homopolymers or copolymers, that have a length to diameter or longest width aspect ratio from 50:1 to 1000:1, and have a fiber length of between 0.5 mm and 1.5 mm; and wherein the fibers comprise a poly (L-lactide-co- glycolide) copolymer which comprises at least about 15% by weight of L-lactide component repeat units and at least about 15% by weight of glycolide component repeat units.
Foamable multi-component composition forming an insulating layer with at least one alkoxysilane functional polymer, which terminates and/or has alkoxy functional silane groups of general formula as side groups along the polymer chain -Si(R 1) m (OR 2) 3 - m, in which R 1 stands for a linear or branched C 1 -C 16 alkyl residue, R 2 for a linear or branched C 1 -C 6 alkyl residue and m for an integer from 0 to 2, with a propellant mixture and with a crosslinking agent, in which the individual components of the propellant mixture are separated from each other in a way that inhibits reaction before the composition is used and the crosslinking agent is separated from the alkoxysilane functional polymer in a way that inhibits reaction before the composition is used, characterised in that the multi-component composition contains at least one fire protection additive forming an insulating layer in an amount of 12 to 60% by weight with reference to the whole multi-component composition. in which R 1 stands for a linear or branched C 1 -C 16 alkyl residue, R 2 for a linear or branched C 1 -C 6 alkyl residue and m for an integer from 0 to 2, with a propellant mixture and with a crosslinking agent, in which the individual components of the propellant mixture are separated from each other in a way that inhibits reaction before the composition is used and the crosslinking agent is separated from the alkoxysilane functional polymer in a way that inhibits reaction before the composition is used, characterised in that the multi-component composition contains at least one fire protection additive forming an insulating layer in an amount of 12 to 60% by weight with reference to the whole multi-component composition.
Method for detecting and locating a fault affecting a cable, the cable being intended to conduct an electrical current, the method comprising the following steps: a) placing a first sensor (11, 11') and a second sensor, the first sensor being able to detect the occurrence of a fault in the cable, the second sensor being able to detect an acoustic wave propagating along the cable, following the occurrence of the fault in the cable; b) detecting the occurrence of the fault - with the first sensor, at a first time ( t 1), - and with the second sensor, at a second time ( t 2), subsequent or identical to the first time; c) taking into account a propagation speed ( v 1, v i) of the acoustic wave generated by the fault; d) estimating a position ( x 1, x i) of the fault depending on the first time ( t 1) and on the second time ( t 2), on the basis of the propagation speed resulting from step c); wherein the method further comprises: e) determining a reference propagation speed (v ref ( x 1), v ref ( x i)) depending on the position ( x 1, x i) estimated in step d) of the fault, and comparing the reference speed with the propagation speed taken into account in step c); f) depending on the comparison, ▪ validating the position resulting from step d); ▪ or reiterating steps c) to f) while adjusting, in step c), the propagation speed taken into account. a) placing a first sensor (11, 11') and a second sensor, the first sensor being able to detect the occurrence of a fault in the cable, the second sensor being able to detect an acoustic wave propagating along the cable, following the occurrence of the fault in the cable; b) detecting the occurrence of the fault - with the first sensor, at a first time ( t 1), - and with the second sensor, at a second time ( t 2), subsequent or identical to the first time; - with the first sensor, at a first time ( t 1), - and with the second sensor, at a second time ( t 2), subsequent or identical to the first time; c) taking into account a propagation speed ( v 1, v i) of the acoustic wave generated by the fault; d) estimating a position ( x 1, x i) of the fault depending on the first time ( t 1) and on the second time ( t 2), on the basis of the propagation speed resulting from step c); e) determining a reference propagation speed (v ref ( x 1), v ref ( x i)) depending on the position ( x 1, x i) estimated in step d) of the fault, and comparing the reference speed with the propagation speed taken into account in step c); f) depending on the comparison, ▪ validating the position resulting from step d); ▪ or reiterating steps c) to f) while adjusting, in step c), the propagation speed taken into account. ▪ validating the position resulting from step d); ▪ or reiterating steps c) to f) while adjusting, in step c), the propagation speed taken into account.
A hydrophobic flame retardant fibre with a skin-core structure, wherein, the volume ratio of skin to core is in a range of 2:8 -6:4; wherein, weight percentages of compositions of skin layer material comprise: 79.9%-88.8% of PET, 8%-13% of PVDF, 3%-6% of flame retardant agent, 0.1%-0.5% of compatibilizer, 0.1%-0.6% of coupling agent; wherein, weight percentages of compositions of core layer material comprise: 91%-95% of PET, 5%-9% of flame retardant agent.
A method for communication between a Web Real-Time Communication, Webrtc, browser and a telecommunication network, applied to a gateway and comprising: establishing a first Websocket link with the Webrtc browser, and establishing a second link with a Next Generation Network, NGN, or Internet Protocol Multimedia Subsystem, IMS network; receiving first data from the Webrtc browser on the first Websocket link, converting the first data to obtain second data when the first data is call related Session Initiation Protocol, SIP, signaling, and sending the second data to the NGN or IMS network on the second link; and receiving third data from the NGN or IMS network on the second link, converting the third data to obtain fourth data when the third data is call related SIP signaling, and transparently transmitting the fourth data to the Webrtc browser on the first Websocket link; wherein receiving the first data from the Webrtc browser on the first Websocket link further comprises: when the first data is non-call related SIP signaling, directly transparently transmitting the first data to the NGN or IMS network; wherein converting the first data to obtain the second data when the first data is call related SIP signaling comprises: modifying a Web Real-Time Communication, Webrtc, protocol related media parameter in a Session Description Protocol, SDP, packet of the first data into an NGN or IMS network related media parameter to obtain the second data. establishing a first Websocket link with the Webrtc browser, and establishing a second link with a Next Generation Network, NGN, or Internet Protocol Multimedia Subsystem, IMS network; receiving first data from the Webrtc browser on the first Websocket link, converting the first data to obtain second data when the first data is call related Session Initiation Protocol, SIP, signaling, and sending the second data to the NGN or IMS network on the second link; and receiving third data from the NGN or IMS network on the second link, converting the third data to obtain fourth data when the third data is call related SIP signaling, and transparently transmitting the fourth data to the Webrtc browser on the first Websocket link; wherein receiving the first data from the Webrtc browser on the first Websocket link further comprises: when the first data is non-call related SIP signaling, directly transparently transmitting the first data to the NGN or IMS network; wherein converting the first data to obtain the second data when the first data is call related SIP signaling comprises: modifying a Web Real-Time Communication, Webrtc, protocol related media parameter in a Session Description Protocol, SDP, packet of the first data into an NGN or IMS network related media parameter to obtain the second data.
A method for localizing an emitter in a sample comprising - illuminating the sample with a stationary donut-shaped excitation beam, and - acquiring fluorescence photons, characterized in that the donut-shaped excitation beam is stationary with respect to the sample during the acquisition of the fluorescence photons, and wherein the fluorescence photons are acquired in a position-specific manner, wherein the position-specific acquisition of the fluorescence photons is performed in an image plane arranged confocally with respect to a plane of an excitation focus of the excitation beam, wherein the position of the emitter is estimated from a plurality of fluorescence photon counts detected in the position-specific manner while keeping the position of the excitation beam constant with respect to the sample, wherein the position specificity of detection is achieved by sampling or measuring a spatial distribution of the light emitted by the emitter, which is achieved by altering the position of a pinhole projection in the focal plane in the sample or by directly measuring the spatial distribution of the emitted light by an array detector comprising several detector elements arranged in a two-dimensional pattern in the detector plane; and - a position of the emitter in the sample is estimated from the acquired plurality of fluorescence photon counts. - illuminating the sample with a stationary donut-shaped excitation beam, and - acquiring fluorescence photons, characterized in that the donut-shaped excitation beam is stationary with respect to the sample during the acquisition of the fluorescence photons, and wherein the fluorescence photons are acquired in a position-specific manner, wherein the position-specific acquisition of the fluorescence photons is performed in an image plane arranged confocally with respect to a plane of an excitation focus of the excitation beam, wherein the position of the emitter is estimated from a plurality of fluorescence photon counts detected in the position-specific manner while keeping the position of the excitation beam constant with respect to the sample, wherein the position specificity of detection is achieved by sampling or measuring a spatial distribution of the light emitted by the emitter, which is achieved by altering the position of a pinhole projection in the focal plane in the sample or by directly measuring the spatial distribution of the emitted light by an array detector comprising several detector elements arranged in a two-dimensional pattern in the detector plane; and - a position of the emitter in the sample is estimated from the acquired plurality of fluorescence photon counts. - a position of the emitter in the sample is estimated from the acquired plurality of fluorescence photon counts.
Connecting member of an ostomy device, the member being mounted on a support intended to be affixed to the skin of a patient and surrounding an opening in said support the member comprising a first piece consisting of flexible material and with two essentially parallel faces (6, 7), the first of which is affixed to the support, and at least one second piece consisting of rigid material, being affixed to the second face of the first piece and extending at least partially beyond the external contours of the first piece, characterized by the thickness of the second piece being less than the thickness of the first piece.