mhurhangee/ep-ind-claims huggingface dataset:
Forge-proof document comprising: - a front side, - a back side, - a first security feature comprising a perforation pattern which displays a first image information when viewed against a bright background, and - a second security feature comprising a pattern which displays a second image information when light is reflected falling on the pattern, - wherein the first and the second image information to be displayed on the forge-proof document correspond with each other, wherein - the front side comprises the second security feature, characterized in that - the back side comprises the second security feature, - wherein the second image information of the back side is the mirrored image information of the second image information of the front side, and - on the back side, the second image information represented by the second security feature is identical to the first image information represented by the first security feature.. - a front side, - a back side, - a first security feature comprising a perforation pattern which displays a first image information when viewed against a bright background, and - a second security feature comprising a pattern which displays a second image information when light is reflected falling on the pattern, - wherein the first and the second image information to be displayed on the forge-proof document correspond with each other, wherein - the front side comprises the second security feature, characterized in that - the back side comprises the second security feature, - wherein the second image information of the back side is the mirrored image information of the second image information of the front side, and - on the back side, the second image information represented by the second security feature is identical to the first image information represented by the first security feature..
Drinks container having a closable interior space and a drinking straw, which is connected to the interior space and is designed to regulate the supply quantity, wherein the drinking straw comprises a first tubular section and a second tubular section, which is inserted into the first section and can be moved relative to the same, wherein the first section and the second section are each provided, at a lower end, with an inlet opening (7, 10) and, at an upper end, with an outlet opening (6, 11), characterized in that, at the lower end, the first section and the second section each have a closed bottom (5, 9) and, immediately above the closed bottom (5, 9), they each have a correspondingly contoured aperture (7a, 10a), which partially extends in the circumferential direction of the first section and of the second section, respectively, and is designed in the form of an inlet opening (7, 10), wherein the inlet openings (7, 10) can be transferred, by relative movement of the second section about the longitudinal axis of the drinking straw, into a closed position of the drinking straw, in which the inlet openings (7, 10) of the second section and of the first section are closed by the lateral surface of the respective other section (2, 3) of the drinking straw, and into a drinking position of the drinking straw, in which the inlet openings (7, 10) at least partially overlap one another, in order to allow flow through the drinking straw.
Method for producing a floor panel for laying on a subfloor, comprising - a carrier panel with an upper side and an underside, - a decorative layer provided on the upper side of the carrier panel, - a first edge with a first holding profile, - a second edge with a second holding profile which can be connected to the first holding profile of a structurally identical floor panel, wherein the first holding profile and the second holding profile are designed such that, in the connected state, they are locked in a horizontal direction parallel to a laying plane and transverse to the first edge, and are locked in a vertical direction perpendicular to the laying plane, - a sound-damping layer composed of a sound-damping material that is provided on the underside of the carrier panel, wherein, in the use position of the floor panel, the sound-damping layer has a substantially full-surface adhesive layer on an outer side directed towards the subfloor, - a peelable protective layer for the adhesive layer, wherein a density of the sound-damping material is between 800 and 1500 kg/m3, wherein the sound-damping layer has a carrier layer for the sound-damping material on an inner side directed towards the carrier panel, wherein the sound-damping material is applied in liquid form to the carrier layer, and wherein the sound-damping layer is connected to the carrier plate only after the curing of the liquid sound-damping material. - a carrier panel with an upper side and an underside, - a decorative layer provided on the upper side of the carrier panel, - a first edge with a first holding profile, - a second edge with a second holding profile which can be connected to the first holding profile of a structurally identical floor panel, wherein the first holding profile and the second holding profile are designed such that, in the connected state, they are locked in a horizontal direction parallel to a laying plane and transverse to the first edge, and are locked in a vertical direction perpendicular to the laying plane, - a sound-damping layer composed of a sound-damping material that is provided on the underside of the carrier panel, wherein, in the use position of the floor panel, the sound-damping layer has a substantially full-surface adhesive layer on an outer side directed towards the subfloor, - a peelable protective layer for the adhesive layer,
A method of estimating a quantity of short circuit current available, i.e. SCCA, at a node of an alternating current electrical circuit, the AC electrical circuit including a direct current charging circuit electrically connected to the node, the method comprising: measuring a current flowing into the DC charging circuit to produce a set of current measurements; determining a total harmonic current distortion, i.e. THDi, based on the set of current measurements; establishing a correlation between the quantity of SCCA at the node and the THDi of current drawn by the DC charging circuit; estimating a quantity of SCCA at the node based on the determined THDi; and storing the estimate of a quantity of SCCA in a memory. measuring a current flowing into the DC charging circuit to produce a set of current measurements; determining a total harmonic current distortion, i.e. THDi, based on the set of current measurements; establishing a correlation between the quantity of SCCA at the node and the THDi of current drawn by the DC charging circuit; estimating a quantity of SCCA at the node based on the determined THDi; and storing the estimate of a quantity of SCCA in a memory.
An apparatus comprising an aircraft engine and a hydraulic plant operative to reduce rotor warpage, the hydraulic plant comprising: an engine driven hydraulic pump operative to receive a rotational force in a first direction from an engine rotor to supply hydraulic pressure to a hydraulic system in a first fluid direction; a filter apparatus operative to filter hydraulic fluid received from the engine driven hydraulic pump in the first fluid direction, the filter apparatus comprising a filter check valve to allow fluid flow in the first fluid direction and prevent fluid flow in a second direction; a hydraulic pump operative to provide hydraulic fluid to the engine driven hydraulic pump in the second fluid direction; and a bypass valve operative to bypass the filter check valve to allow hydraulic fluid flow in the second fluid direction to cause the engine driven hydraulic pump to rotate in a second direction to cause the aircraft engine to rotate. an engine driven hydraulic pump operative to receive a rotational force in a first direction from an engine rotor to supply hydraulic pressure to a hydraulic system in a first fluid direction; a filter apparatus operative to filter hydraulic fluid received from the engine driven hydraulic pump in the first fluid direction, the filter apparatus comprising a filter check valve to allow fluid flow in the first fluid direction and prevent fluid flow in a second direction; a hydraulic pump operative to provide hydraulic fluid to the engine driven hydraulic pump in the second fluid direction; and a bypass valve operative to bypass the filter check valve to allow hydraulic fluid flow in the second fluid direction to cause the engine driven hydraulic pump to rotate in a second direction to cause the aircraft engine to rotate.
A spacer for a gas turbine engine comprising: a rotor ring defined along an axis of rotation and configured to be positioned between a first rotor and a second rotor in use, characterised in that the spacer comprises a plurality of core gas path seals which extend radially outwardly from said rotor ring between the first rotor and the second rotor in use, each of said plurality of core gas path seals being separated from said rotor ring at an interface, each interface being defined along a spoke, the spoke extending radially between the rotor ring and the core gas path seal and comprising a reduced section defined by interruptions which produce axial or semi-axial slots which flank each spoke, wherein a plurality of passages which flank the spokes are formed between the rotor ring and the core gas path seal to define airflow paths. a rotor ring defined along an axis of rotation and configured to be positioned between a first rotor and a second rotor in use, characterised in that the spacer comprises a plurality of core gas path seals which extend radially outwardly from said rotor ring between the first rotor and the second rotor in use, each of said plurality of core gas path seals being separated from said rotor ring at an interface, each interface being defined along a spoke, the spoke extending radially between the rotor ring and the core gas path seal and comprising a reduced section defined by interruptions which produce axial or semi-axial slots which flank each spoke, wherein a plurality of passages which flank the spokes are formed between the rotor ring and the core gas path seal to define airflow paths.
A package comprising at least one stack of absorbent articles, wherein each article extends in longitudinal direction and a transversal direction, and comprises: - a topsheet; - a backsheet; - an absorbent core between the topsheet and the backsheet, wherein the absorbent core comprises an absorbent layer in a core wrap (16, 16'), the absorbent layer comprising an absorbent material and having a longitudinally-extending central portion, a first side portion disposed transversally outward of the central portion and a second side portion disposed transversally outward of the central portion on another side of the central portion; wherein the absorbent core further comprises a first folding guide between the central portion and the first side portion, and a second folding guide between the central portion and the second side portion; wherein each side portion comprises a plurality of winglets (610-613, 620-623), each winglet having a proximal side (6200, 6210, 6220) relative to a folding guide and extending outward from this proximal side, and wherein neighboring winglets are separated by a gap between their neighboring sides (6202-6211, 6213-6221); wherein the absorbent article adopts a three-dimension basin-like configuration when the central portion and the side portions are folded relative to each other along the folding guides of the absorbent core; and wherein in the package, either a) the articles are bi-folded along a transversal fold line and are compressed at an In-Bag Compression Rate of from 5% to 50%, or b) the articles are tri-folded along a first fold line and a second fold line parallel to the transversal direction, and wherein the first fold line and the second fold line are placed outside the side portions, towards the front edge and back edge of the core respectively, or at least away from the gaps between the winglets, so that they do not interfere with the formation of basin-shaped configuration of the article. - a topsheet; - a backsheet; - an absorbent core between the topsheet and the backsheet, wherein the absorbent core comprises an absorbent layer in a core wrap (16, 16'), the absorbent layer comprising an absorbent material and having a longitudinally-extending central portion, a first side portion disposed transversally outward of the central portion and a second side portion disposed transversally outward of the central portion on another side of the central portion; wherein the absorbent core further comprises a first folding guide between the central portion and the first side portion, and a second folding guide between the central portion and the second side portion; wherein each side portion comprises a plurality of winglets (610-613, 620-623), each winglet having a proximal side (6200, 6210, 6220) relative to a folding guide and extending outward from this proximal side, and wherein neighboring winglets are separated by a gap between their neighboring sides (6202-6211, 6213-6221); wherein the absorbent article adopts a three-dimension basin-like configuration when the central portion and the side portions are folded relative to each other along the folding guides of the absorbent core; and
Hydraulic overpressure valve comprising a valve housing, a valve seat located in said valve housing and having a seat center and a seat center axis, a cone element movable relatively to said valve seat, said cone element having a cone protruding at least partly into said valve seat and having a cone center; axis, and force generating means acting on said cone element in a direction towards said valve seat, wherein said cone is movable along a path of movement in which said cone center axis is kept outside said seat center axis, a ring gap is provided between said cone element and said housing, said cone is loaded with a lateral force perpendicular to said cone center; axis, said lateral force is generated by said force generating means, said force generating means comprise at least a spring, an arrangement of said spring and said cone element is asymmetric with respect to said cone center axis, and said spring comprises two ends faces (10, 11), one of said two end faces (10, 11) resting against a first spring support area of said cone element and the other one of said two end faces (10, 11) resting against a second spring support area located in said valve housing, characterized in that at least one of said two end faces (10, 11) and said spring supporting areas (12, 13) deviates from a plane which is perpendicular to said seat center axis, and said end faces (10, 11) are slanted relative to said plane in opposite directions and/or said spring support areas (12, 13) are slanted relative to said plane in opposite directions.
A method of manufacturing a plastic fuel tank from at least one sheet-form extrudate, characterized in that it consists in: - offering up the extrudate between two opposing cavities (15, 17) of an open mold, the imprint of which corresponds to the shape of the tank that is to be manufactured, then - bringing the two cavities (15, 17) closer together until the mold is closed, - while the two cavities are being brought closer together, injecting a first fluid on one side of the extrudate, which side is situated between the extrudate and at least one cavity, in a zone comprising, at the top of a relief, a disk-shaped plateau, the injection of the first fluid being realized through a vent located in a wall of the cavity, - injecting a second fluid on the other side of the extrudate, - removing the first fluid present between the cavity and the extrudate before the end of injection of the second fluid so as to press the extrudate firmly against the cavity, the step of removing the first fluid consisting in suction from outside the mold or venting to atmospheric pressure, after the removal of the first fluid, the parison sticks to the wall of the zone of the cavity at all points thereof. - offering up the extrudate between two opposing cavities (15, 17) of an open mold, the imprint of which corresponds to the shape of the tank that is to be manufactured, then - bringing the two cavities (15, 17) closer together until the mold is closed, - while the two cavities are being brought closer together, injecting a first fluid on one side of the extrudate, which side is situated between the extrudate and at least one cavity, in a zone comprising, at the top of a relief, a disk-shaped plateau, the injection of the first fluid being realized through a vent located in a wall of the cavity, - injecting a second fluid on the other side of the extrudate, - removing the first fluid present between the cavity and the extrudate before the end of injection of the second fluid so as to press the extrudate firmly against the cavity, the step of removing the first fluid consisting in suction from outside the mold or venting to atmospheric pressure, after the removal of the first fluid, the parison sticks to the wall of the zone of the cavity at all points thereof.
Retaining apparatus having a) a mount which has a receptacle, b) a pin which is guided in a longitudinally displaceable manner in the receptacle of the mount, which is subjected to spring force and which has a pin head, wherein the pin head protrudes out of the receptacle of the mount, c) a centring device, wherein the centring device is arranged on the pin in a non-displaceable manner and is provided with a restoring force within the receptacle of the mount, said restoring force being directed against the mount, and the centring device is composed of at least one tab (6, 7, 8), but is preferably composed of at least two tabs (6, 7, 8) which are arranged on the pin substantially equidistantly over the circumference of the latter, and the at least one tab (6, 7, 8) can be pivoted to produce a restoring force against the pin, characterized in that the at least one tab (6, 7, 8) is designed in such a way that, when the pin is arranged within the receptacle of the mount, said tab contacts an inner wall of the mount with a contact area, wherein the contact area runs parallel to the inner wall. a) a mount which has a receptacle, b) a pin which is guided in a longitudinally displaceable manner in the receptacle of the mount, which is subjected to spring force and which has a pin head, wherein the pin head protrudes out of the receptacle of the mount, c) a centring device,
An electronic element mounting substrate, comprising: a first substrate comprising a first principal face and a second principal face located opposite to the first principal face; a second substrate located inside the first substrate in a plan view of the electronic element mounting substrate, the second substrate comprising a third principal face located on a first principal face side in a thickness direction of the second substrate and a fourth principal face located opposite to the third principal face, the second substrate being made of a carbon material; and a plurality of via conductors that are, in the plan view of the electronic element mounting substrate, arranged in the first substrate with the second substrate in between, in the plan view of the electronic element mounting substrate, heat conduction of the second substrate being greater in a direction perpendicular to a direction in which the plurality of via conductors are arranged with the second substrate in between than in the direction in which the plurality of via conductors are arranged with the second substrate in between. a first substrate comprising a first principal face and a second principal face located opposite to the first principal face; a second substrate located inside the first substrate in a plan view of the electronic element mounting substrate, the second substrate comprising a third principal face located on a first principal face side in a thickness direction of the second substrate and a fourth principal face located opposite to the third principal face, the second substrate being made of a carbon material; and a plurality of via conductors that are, in the plan view of the electronic element mounting substrate, arranged in the first substrate with the second substrate in between, in the plan view of the electronic element mounting substrate, heat conduction of the second substrate being greater in a direction perpendicular to a direction in which the plurality of via conductors are arranged with the second substrate in between than in the direction in which the plurality of via conductors are arranged with the second substrate in between.
A polytetrafluoroethylene composite filter material, characterized by comprising a supporting layer and a polytetrafluoroethylene film layer, wherein the supporting layer is a silver-plated carbon nanomaterial-modified meltblown nonwoven fabric, wherein the polytetrafluoroethylene composite filter material is prepared by fiberizing a resin material modified by silver-plated carbon nanomaterials on the surface of a polytetrafluoroethylene film by a melt-blowing method, and wherein carbon nanomaterials refer to carbon materials with at least one dimension smaller than 100 nm. wherein the polytetrafluoroethylene composite filter material is prepared by fiberizing a resin material modified by silver-plated carbon nanomaterials on the surface of a polytetrafluoroethylene film by a melt-blowing method, and wherein carbon nanomaterials refer to carbon materials with at least one dimension smaller than 100 nm.
An injection molding machine comprising a structure for positioning a first mold part (122, 322, 422) of a mold on a mold mounting face (111, 211, 311, 811), the structure comprising: a positioner (130, 330, 530, 630) configured to connect the first mold part (122, 322, 422) to part of the injection molding machine, wherein the positioner (130, 330, 530, 630) is adjustable to position the first mold part (122, 322, 422) on the mold mounting face (111, 211, 311, 811), the positioner (130, 330, 530, 630) being configured to mount to one of a first platen (110, 210, 310, 410) of the injection molding machine or a mold mounting device, and to provide a mold connection interface on the mold mounting face (211, 311, 811) thereof which mold connection interface is configured to interconnect with a complementary connection interface defined on a mold plate of the first mold part, characterized in that the positioner (130, 330, 530, 630) includes a connection block configured to be recessed within a pocket defined in one of the first platen (110, 210, 310, 410) or a mounting plate of the mold mounting device, and an actuator connectable to one of the first platen (110, 210, 310, 410) and the mounting plate, and to the connection block for selectively positioning of the connection block within the pocket, wherein the connection block defines the mold connection interface. a positioner (130, 330, 530, 630) configured to connect the first mold part (122, 322, 422) to part of the injection molding machine, wherein the positioner (130, 330, 530, 630) is adjustable to position the first mold part (122, 322, 422) on the mold mounting face (111, 211, 311, 811), the positioner (130, 330, 530, 630) being configured to mount to one of a first platen (110, 210, 310, 410) of the injection molding machine or a mold mounting device, and to provide a mold connection interface on the mold mounting face (211, 311, 811) thereof which mold connection interface is configured to interconnect with a complementary connection interface defined on a mold plate of the first mold part, characterized in that the positioner (130, 330, 530, 630) includes a connection block configured to be recessed within a pocket defined in one of the first platen (110, 210, 310, 410) or a mounting plate of the mold mounting device, and an actuator connectable to one of the first platen (110, 210, 310, 410) and the mounting plate, and to the connection block for selectively positioning of the connection block within the pocket, wherein the connection block defines the mold connection interface.