mhurhangee/ep-ind-claims huggingface dataset:
A pressure operated apparatus, comprising: a piston member mounted within a piston bore and being reconfigurable from a lock configuration to an unlock configuration to facilitate an associated operation, wherein the piston member comprises a locking profile including an axial lock surface and a radial support surface; a plurality of lock members, arranged to sequentially restrict movement of the piston member towards its unlock configuration, wherein the piston member is reciprocally moveable within the piston bore in response to sequential pressure events applied within the piston bore to sequentially move the lock members from a first retaining position, wherein a lock member is supported by the radial support surface, to a second release position, wherein the lock member is misaligned from the radial support surface and wholly received within the piston bore, until all lock members are moved to their second release position to permit the piston member to be reconfigured to its unlock position; and, a lock member restrictor, configured to prevent multiple lock members from being received into the piston bore during a single movement of the piston member in response to a single pressure event in the piston bore. a piston member mounted within a piston bore and being reconfigurable from a lock configuration to an unlock configuration to facilitate an associated operation, wherein the piston member comprises a locking profile including an axial lock surface and a radial support surface; a plurality of lock members, arranged to sequentially restrict movement of the piston member towards its unlock configuration, wherein the piston member is reciprocally moveable within the piston bore in response to sequential pressure events applied within the piston bore to sequentially move the lock members from a first retaining position, wherein a lock member is supported by the radial support surface, to a second release position, wherein the lock member is misaligned from the radial support surface and wholly received within the piston bore, until all lock members are moved to their second release position to permit the piston member to be reconfigured to its unlock position; and, a lock member restrictor, configured to prevent multiple lock members from being received into the piston bore during a single movement of the piston member in response to a single pressure event in the piston bore.
Intumescent fire sleeve for a conduit penetrating a wall, a ceiling or a floor in a building, said fire sleeve comprising at least one layer of intumescent material and one carrier being connected to the layer of intumescent material, and said fire sleeve having a length that at least corresponds to a circumference of the conduit for which it is intended, characterized in that the carrier is made of at least one wire having spring-loaded characteristics and that the carrier, in a non-applied position, has the ability to coil onto itself in a spiral manner whereby two spring-loaded wires are incorporated into two canals running in lengthwise direction of the layer or whereby the wire runs lengthwise on a surface of the layer and is covered by a coverage fixed to the layer or whereby two wires are fixed to parallel side surfaces of the layer.
A fingerprint identification device, comprising: a first gate line (Gate1,Gate2,Gate3), a second gate line (Gate' 1, Gate'2, Gate'3), a read signal line (S1,S2,S3,S4,S5,S6,S7) and a voltage dividing unit, wherein, a plurality of fingerprint identification units are defined by the second gate line (Gate'1,Gate'2,Gate'3) and the read signal line (S1,S2,S3,S4,S5,S6,S7) intersecting with each other, and the fingerprint identification unit includes a photosensitive member and a thin film transistor; the first gate line (Gate1,Gate2,Gate3) is connected with the voltage dividing unit, the voltage dividing unit includes a pressure sensitive member and an equivalent resistor connected in series, and the second gate line (Gate' 1, Gate'2, Gate'3) is connected between the pressure sensitive member and the equivalent resistor, wherein, a gate electrode of the thin film transistor is connected with the second gate line (Gate'1,Gate'2,Gate'3), a first electrode of the thin film transistor is connected with the photosensitive member, and a second electrode of the thin film transistor is connected with the read signal line, an electrical signal generated by the photosensitive member is used for detecting a fingerprint signal. a first gate line (Gate1,Gate2,Gate3), a second gate line (Gate' 1, Gate'2, Gate'3), a read signal line (S1,S2,S3,S4,S5,S6,S7) and a voltage dividing unit, wherein, a plurality of fingerprint identification units are defined by the second gate line (Gate'1,Gate'2,Gate'3) and the read signal line (S1,S2,S3,S4,S5,S6,S7) intersecting with each other, and the fingerprint identification unit includes a photosensitive member and a thin film transistor; the first gate line (Gate1,Gate2,Gate3) is connected with the voltage dividing unit, the voltage dividing unit includes a pressure sensitive member and an equivalent resistor connected in series, and the second gate line (Gate' 1, Gate'2, Gate'3) is connected between the pressure sensitive member and the equivalent resistor, wherein, a gate electrode of the thin film transistor is connected with the second gate line (Gate'1,Gate'2,Gate'3), a first electrode of the thin film transistor is connected with the photosensitive member, and a second electrode of the thin film transistor is connected with the read signal line, an electrical signal generated by the photosensitive member is used for detecting a fingerprint signal.
A cable (1") for a local network comprising: - a first conductive assembly comprising between two and four pairs of metal conductors, - a second coaxial conductive assembly comprising an inner metal conductor, an envelope in a dielectric material surrounding the inner metal conductor and an outer metal conductor surrounding the envelope in a dielectric material, and - a sheath surrounding the first conductive assembly and the second conductive assembly, characterized in that the sheath comprises two longitudinally separable sheath elements (11, 12) so as to allow an independent connection of the first conductive assembly and of the second conductive assembly. - a first conductive assembly comprising between two and four pairs of metal conductors, - a second coaxial conductive assembly comprising an inner metal conductor, an envelope in a dielectric material surrounding the inner metal conductor and an outer metal conductor surrounding the envelope in a dielectric material, and - a sheath surrounding the first conductive assembly and the second conductive assembly,
An electrochemical cell comprising: - a housing having a bottom portion comprising a vent; - a cell element being disposed in the housing and having at least one electrode (36, 38); and - a current collector (40, 70, 170) having an outer member and an inner member coupled to the outer member by a plurality of flexible arms configured to allow the inner member to move relative to the outer member, the outer member being coupled to the cell element and the inner member being coupled to the vent such that the flexible arms bend to allow the inner member to move axially with respect to the outer member when the vent moves from an undeployed position to a deployed position. - a housing having a bottom portion comprising a vent; - a cell element being disposed in the housing and having at least one electrode (36, 38); and - a current collector (40, 70, 170) having an outer member and an inner member coupled to the outer member by a plurality of flexible arms configured to allow the inner member to move relative to the outer member, the outer member being coupled to the cell element and the inner member being coupled to the vent such that the flexible arms bend to allow the inner member to move axially with respect to the outer member when the vent moves from an undeployed position to a deployed position.
A gas barrier coating based on silicon nitride, having a N/Si compositional ratio of 1 to 1.4 and a hydrogen content of 10 to 30 atomic percent, wherein: a peak of an absorption caused by Si-H stretching vibration occurs at a wavenumber ranging from 2170 to 2200 cm -1 in a Fourier transform infrared absorption spectrum of the coating, with a ratio [I (Si-H) /I (Si-N)] between a peak intensity I (Si-H) of the absorption caused by Si-H stretching vibration and a peak intensity I (Si-N) of an absorption caused by Si-N stretching vibration in the vicinity of 840 cm -1 being 0.03 to 0.15; and wherein a ratio [I (N-H) /I (Si-H)] between a peak intensity I (N-H) of an absorption caused by N-H stretching vibration in the vicinity of 3350 cm -1 in the Fourier transform infrared absorption spectrum and said peak intensity I (Si-H) is 0.5 to 1.5, wherein the coating is on a substrate. a peak of an absorption caused by Si-H stretching vibration occurs at a wavenumber ranging from 2170 to 2200 cm -1 in a Fourier transform infrared absorption spectrum of the coating, with a ratio [I (Si-H) /I (Si-N)] between a peak intensity I (Si-H) of the absorption caused by Si-H stretching vibration and a peak intensity I (Si-N) of an absorption caused by Si-N stretching vibration in the vicinity of 840 cm -1 being 0.03 to 0.15; and wherein a ratio [I (N-H) /I (Si-H)] between a peak intensity I (N-H) of an absorption caused by N-H stretching vibration in the vicinity of 3350 cm -1 in the Fourier transform infrared absorption spectrum and said peak intensity I (Si-H) is 0.5 to 1.5, wherein the coating is on a substrate.
Multi-layered wall comprising an already existing wall and a plurality of thermally insulating bricks, so that an additional brick wall layer is formed on the inner side and/or outer side of the already existing wall, wherein the plurality of thermally insulating bricks is adhesively bonded to the already existing wall, characterised in that no supporting element, in particular no bracket, no angle, no base plate, no false ceiling and no foundation is provided for the vertical support of the thermally insulating bricks, wherein the thermally insulating bricks have a coefficient of thermal conductivity of at most 0.065 W/mK.
Battery module having a battery cell circuit comprising a plurality of battery cells and having a monitoring and actuation unit for monitoring the functional state of the battery module, wherein a coupling unit with two half-bridges (240, 250) is arranged in the battery module, which half-bridges each comprise a first power semiconductor (241, 251) which is coupled to a positive pole of the battery cell circuit, a second power semiconductor (242, 252) which is coupled to a negative pole of the battery cell circuit, and a central connection and are connected to a respective other output terminal (224, 225) of the battery module via the respective central connection, wherein the battery module is designed, during normal operation, to operate the coupling unit by means of actuation by the monitoring and actuation unit in such a way that the first power semiconductor (241, 251) of one of the two half-bridges (240, 250) and the second power semiconductor (252, 242) of the other half-bridge (240, 250) are switched on and the other power semiconductors (242, 251, 241, 252) of the half-bridges (240, 250) are switched off, so that a battery module voltage is applied to the output terminals (224, 225) of the battery module selectively with a positive or negative orientation, characterized in that the monitoring and actuation unit is designed to identify, on the basis of information which is communicated, in particular, by a battery management system and/or evaluation of a measured cell temperature or battery module temperature and/or evaluation of the battery module voltage, the presence of a hazardous situation, in particular in the case of a cell temperature or battery module temperature which exceeds a predetermined temperature limit value and/or a dip in the battery module voltage, and, if the hazardous situation is present, to actuate the coupling unit, for the purpose of discharging the battery module, in such a way that, in at least one of the half-bridges (240, 250), the respective first power semiconductor (241, 251) or the respective second power semiconductor (242, 252) is switched on and the respective other power semiconductor (241, 242, 251, 252) is switched to active operation as a controllable resistor.
A magnesium alloy member comprising 0.025 mol% or more and less than 0.05 mol% of yttrium, Mg and unavoidable impurities accounting for the remainder.
A stent comprising: a cobalt-based alloy comprising 10-35 weight % material selected from the group consisting of platinum (Pt), gold (Au), iridium (Ir), osmium (Os), rhenium (Re), tungsten, palladium (Pd), tantalum (Ta), and combinations thereof; 16-21 weight % chromium (Cr); 9-12 weight % molybdenum (Mo); 0-25 weight % nickel (Ni); and balance cobalt (Co). a cobalt-based alloy comprising 10-35 weight % material selected from the group consisting of platinum (Pt), gold (Au), iridium (Ir), osmium (Os), rhenium (Re), tungsten, palladium (Pd), tantalum (Ta), and combinations thereof; 16-21 weight % chromium (Cr); 9-12 weight % molybdenum (Mo); 0-25 weight % nickel (Ni); and balance cobalt (Co). 10-35 weight % material selected from the group consisting of platinum (Pt), gold (Au), iridium (Ir), osmium (Os), rhenium (Re), tungsten, palladium (Pd), tantalum (Ta), and combinations thereof; 16-21 weight % chromium (Cr); 9-12 weight % molybdenum (Mo); 0-25 weight % nickel (Ni); and balance cobalt (Co).
An antenna (300; 400) for a wireless communication system, comprising: - a reflector (310; 410) having a front side for transmitting a signal and a back side opposite to the front side; - an antenna oscillator (320; 420) disposed on the front side of the reflector (310; 410); - a phase shifter network disposed on the back side of the reflector (310; 410); and - an antenna oscillator fixing apparatus (330; 430) disposed on the front side of the reflector (310; 410) and configured to fix the antenna oscillator (320; 420) to the front side of the reflector (310; 410), wherein the antenna oscillator (320; 420) comprises a coaxial cable soldering end disposed on the front side of the reflector (310; 410) and configured to connect with a coaxial cable (341; 441) for transferring signals to be transmitted and received by the antenna (300; 400) and required power, the antenna (300; 400) being characterized in that it further comprises a soldering apparatus disposed at a connection point on the reflector between the coaxial cable soldering end and the coaxial cable and configured to solder the coaxial cable soldering end to the coaxial cable.
A trigger sprayer (100; 102; 200), comprising: a pump (150; 250); a sprayer body (114; 214); a container connector (140; 240); a dip tube (160;260); a trigger (110; 210) in communication with the pump; and a turret (130; 230) having a nozzle (120; 220) mounted thereto, the nozzle being in communication with the pump, the turret being rotatable such that the nozzle is rotatable with respect to the trigger, and characterised in that the turret, trigger, sprayer body, container connector, pump, and dip tube are arranged to be collinear. a pump (150; 250); a sprayer body (114; 214); a container connector (140; 240); a dip tube (160;260); a trigger (110; 210) in communication with the pump; and a turret (130; 230) having a nozzle (120; 220) mounted thereto, the nozzle being in communication with the pump, the turret being rotatable such that the nozzle is rotatable with respect to the trigger, and characterised in that the turret, trigger, sprayer body, container connector, pump, and dip tube are arranged to be collinear.
A radio frequency identification article comprising: a housing comprising a first piece having a cavity and a second piece; a radio frequency identification tag located in the cavity of the first piece, the radio frequency identification tag comprising a microchip and an antenna; and a sealing material helping to secure the first piece to the second piece and helping prevent moisture from contacting the radio frequency identification tag, characterized by the sealing material wholly encompassing the housing. a housing comprising a first piece having a cavity and a second piece; a radio frequency identification tag located in the cavity of the first piece, the radio frequency identification tag comprising a microchip and an antenna; and a sealing material helping to secure the first piece to the second piece and helping prevent moisture from contacting the radio frequency identification tag, characterized by the sealing material wholly encompassing the housing.
Pusher centrifuge, comprising a filter drum having a longitudinal axis around which the filter drum is rotatable, a first filter drum body comprising an inner circumferential surface, defined by a first filter means, and an outer circumferential surface, and a second filter drum body comprising an inner circumferential surface, defined by a second filter means, and an outer circumferential surface, a push floor disposed in the filter drum, wherein the first filter drum body is arranged radially directly adjacent to the push floor, and a relative movement mechanism by which the push floor and the second filter drum body together and the first filter drum body can be reciprocated axially relative to each other in the direction of the longitudinal axis of the filter drum, wherein the outer circumferential surface and/or the outer circumferential wall of the first filter drum body extends substantially parallel to the longitudinal axis and/or, as viewed in the cross-section, extending through the longitudinal axis, of the first filter drum body, a straight line extends through the two axially and radially outermost end points (118, 120) of the cross-section of the first filter drum body substantially parallel to the longitudinal axis, and the first filter drum body mainly does not protrude radially beyond the straight line, characterized in that, as viewed in the direction of the longitudinal axis, the second filter means has an axial extension which is greater than the axial extension of the first filter means, wherein the relative movement mechanism is configured in such a way that, in line with the relative reciprocating movement, the push floor is axially and relatively movable at least up to the half of the axial extension of the first filter means, thereby axially displacing material adhering to the inner circumferential surface of the first filter drum body.
A peelable frozen confectionery product comprising; i) a frozen body with a top end and a stick end comprising; a) an outer gel layer; b) an intermediate layer frozen confection; c) an inner core comprising of a liquid or semisolid substance; and ii) a stick element partially inserted and attached with the frozen body at the stick end; wherein the outer gel layer is provided with at least two peeling lines starting from the stick end of the product, said peeling lines allowing to peel-off the gel outer layer starting from the stick end wherein the peeling lines are extended up to 2/3 rd of the length of the frozen body starting from the stick end. i) a frozen body with a top end and a stick end comprising; a) an outer gel layer; b) an intermediate layer frozen confection; c) an inner core comprising of a liquid or semisolid substance; and a) an outer gel layer; b) an intermediate layer frozen confection; c) an inner core comprising of a liquid or semisolid substance; and ii) a stick element partially inserted and attached with the frozen body at the stick end; wherein the outer gel layer is provided with at least two peeling lines starting from the stick end of the product, said peeling lines allowing to peel-off the gel outer layer starting from the stick end
A mold (E1, E2, P) for the manufacture of a hollow body of a glass bottle, the hollow body being designed to be associated with an applied bottom to constitute the bottle, the hollow body comprising an open lower end giving access to a hollow interior, an upper end forming a bottle neck adapted to the mounting of a distribution member such as a plug or a pump, and a hollow main section connecting the two ends, this hollow main section defining an internal surface and an external surface, the mold comprising a set of external mold cavities (E1, E2) for molding the external surface and the bottle neck, characterized in that the mold also comprises a shape-cutting punch which is pressed into the set of external cavities (E1, E2) to form the internal surface, the shape-cutting punch penetrating into the set of external cavities (E1, E2) through an opening which corresponds to the open end of the hollow body of the bottle, the set of external cavities (E1, E2) and the punch defining together a molding/pressing cavity in which the molten glass is pressed by pressing the shape-cutting punch into the set of external cavities (E1, E2).
A LED driver, comprising: at least two dimming interfaces (Int1-Int5), wherein each of the at least two dimming interfaces (Int1-Int5) is configured to output distinct dimming signals (Ir1-Ir7); at least one correction block (CR1-CR7, CF1) configured to reduce distortions in at least one of the dimming signals (Ir1-Ir7) and/or a final output dimming signal; and a controller configured to: receive the dimming signals; and manipulate the dimming signals (Ir1-Ir7) received from the at least two dimming interfaces (Int1-Int5) to produce the final output dimming signal to drive at least one LED (D11-D1n), characterised in that manipulating the dimming signals (Ir1-Ir7) comprises multiplying the dimming signals (Ir1-Ir7) received from the at least two dimming interfaces (Int1-Int5) to produce a product of the dimming signals. at least two dimming interfaces (Int1-Int5), wherein each of the at least two dimming interfaces (Int1-Int5) is configured to output distinct dimming signals (Ir1-Ir7); at least one correction block (CR1-CR7, CF1) configured to reduce distortions in at least one of the dimming signals (Ir1-Ir7) and/or a final output dimming signal; and a controller configured to: receive the dimming signals; and manipulate the dimming signals (Ir1-Ir7) received from the at least two dimming interfaces (Int1-Int5) to produce the final output dimming signal to drive at least one LED (D11-D1n), characterised in that receive the dimming signals; and manipulate the dimming signals (Ir1-Ir7) received from the at least two dimming interfaces (Int1-Int5) to produce the final output dimming signal to drive at least one LED (D11-D1n), characterised in that manipulating the dimming signals (Ir1-Ir7) comprises multiplying the dimming signals (Ir1-Ir7) received from the at least two dimming interfaces (Int1-Int5) to produce a product of the dimming signals.