mhurhangee/ep-ind-claims huggingface dataset:
A curable rapid gas decompression-resistant fluoroelastomeric composition, comprising a curable fluoropolymer comprising a curesite monomer having at least one functional group capable of curing with a peroxide curative; a bisphenyl-based curative; and an organic peroxide curative and an organic peroxide co-curative, wherein said composition comprises a base of 100 parts by weight of the curable fluoropolymer and 1.5 to 3 parts by weight of a bisphenyl-based curative, 2 to 5 parts by weight of the organic peroxide curative and 3 to 6 parts by weight of the organic peroxide co-curative, each based on said 100 parts by weight of the curable fluoropolymer, wherein the fluoroelastomeric composition has a weight ratio of the bisphenyl-based curative to the organic peroxide co-curative of 0.25:1 to 1.5:1 and a weight ratio of the bisphenyl-based curative to the organic peroxide curative of 0.5:1 to 1.5:1.
A power supply switching circuit comprising: a first switch pair (310A, 315A) for selectively connecting a first power supply node (V IN1) to an output node (V OUT); a second switch pair (310B, 315B) for selectively connecting a second power supply node (V IN2) to said output node; and a switch control circuit operable such that a first switch of each of said first switch pair and said second switch pair is controlled by a respective first control signal and a second switch of each of said first switch pair and said second switch pair is controlled by a respective second control signal, so as to connect no more than one of said first power supply node or said second power supply node to said output node at any one time; characterised in that the second control signal for the second switch of at least one of said first switch pair or said second switch pair is sourced via the output node. a first switch pair (310A, 315A) for selectively connecting a first power supply node (V IN1) to an output node (V OUT); a second switch pair (310B, 315B) for selectively connecting a second power supply node (V IN2) to said output node; and a switch control circuit operable such that a first switch of each of said first switch pair and said second switch pair is controlled by a respective first control signal and a second switch of each of said first switch pair and said second switch pair is controlled by a respective second control signal, so as to connect no more than one of said first power supply node or said second power supply node to said output node at any one time; characterised in that the second control signal for the second switch of at least one of said first switch pair or said second switch pair is sourced via the output node.
Rim well made of fiber composite with a flange located on the inner side of the rim well for fastening a wheel spider or a wheel disk, characterized in that the flange is formed by inwardly directed protuberances of wound or braided fiber layers of the rim well, wherein the wound or braided fiber layers enter the flange from the rim well without interruption and the flank of the flange is shaped as an ideally shaped counterpart to mounting elements located on the wheel disk or wheel spider.
A method of encoding an image according to a scalable encoding format, said encoding format comprising at least a reference layer and an enhancement layer, at least part of the image being predictively encoded based on motion information, said motion information being itself predictively encoded based on a set of motion information predictors, wherein the method comprises for at least an image area of the enhancement layer: - determining a set of motion information predictors including a motion information predictor based on motion information of a part of an image belonging to the reference layer; - determining coordinates of a color component sample at a co-located position in the reference layer of the image area to encode in the enhancement layer, and is characterized by - correcting at least one coordinate X of said co-located position to a new value X' given by: X ′ = ⌊ X + 4 / 16 ⌋ ∗ 16, where └(( X + 4)/16)┘ is a truncation of (( X + 4)/16) to an integer value; and - selecting motion information associated with said co-located position with the corrected coordinate in the reference layer to be included as a motion information predictor in said set of motion information predictors, - wherein the selected motion information is motion information available from a 16x16 block of the image belonging to the reference layer. - determining a set of motion information predictors including a motion information predictor based on motion information of a part of an image belonging to the reference layer; - determining coordinates of a color component sample at a co-located position in the reference layer of the image area to encode in the enhancement layer, and is characterized by - correcting at least one coordinate X of said co-located position to a new value X' given by: X ′ = ⌊ X + 4 / 16 ⌋ ∗ 16, where └(( X + 4)/16)┘ is a truncation of (( X + 4)/16) to an integer value; and - selecting motion information associated with said co-located position with the corrected coordinate in the reference layer to be included as a motion information predictor in said set of motion information predictors, - wherein the selected motion information is motion information available from a 16x16 block of the image belonging to the reference layer.
A multi-energy detector array, comprising: a detector tile, including: an upper scintillator layer; an upper photosensor optically coupled to the upper scintillator layer; a lower scintillator layer electrically coupled to the upper photosensor and including at least one scintillator pixel surrounded by at least one wall of non-scintillation material; and a lower photodetector optically and electrically coupled to the lower scintillator layer; and wherein the at least one wall includes at least one electrically conductive interconnect that extends from a top edge of the wall at the upper photosensor to a bottom edge of the wall at the lower photodetector. a detector tile, including: an upper scintillator layer; an upper photosensor optically coupled to the upper scintillator layer; a lower scintillator layer electrically coupled to the upper photosensor and including at least one scintillator pixel surrounded by at least one wall of non-scintillation material; and a lower photodetector optically and electrically coupled to the lower scintillator layer; and an upper scintillator layer; an upper photosensor optically coupled to the upper scintillator layer; a lower scintillator layer electrically coupled to the upper photosensor and including at least one scintillator pixel surrounded by at least one wall of non-scintillation material; and a lower photodetector optically and electrically coupled to the lower scintillator layer; and wherein the at least one wall includes at least one electrically conductive interconnect that extends from a top edge of the wall at the upper photosensor to a bottom edge of the wall at the lower photodetector.
A method for displaying aircraft taxi path guidance on a display unit in an aircraft, the method comprising: obtaining aircraft status data comprising heading data, steering angle and differential speed of the main landing gear; obtaining airport feature data; processing the aircraft status data and the airport feature data to (i) generate a trend line that represents an aircraft predicted taxi path, wherein a surface area within the airport in which the aircraft may safely travel comprises an airport active surface area, and (ii) predict an excursion when an intersection of the aircraft predicted taxi path with a shoulder of the airport active surface area occurs within a predetermined distance threshold; and in response to predicting the excursion, generating corrective action associated with the excursion, wherein the corrective action is based on the differential speed of the main landing gear; and displaying, on the display unit, symbology that is graphically representative of (i) the trend line, and (ii) the corrective action. obtaining aircraft status data comprising heading data, steering angle and differential speed of the main landing gear; obtaining airport feature data; processing the aircraft status data and the airport feature data to (i) generate a trend line that represents an aircraft predicted taxi path, wherein a surface area within the airport in which the aircraft may safely travel comprises an airport active surface area, and (ii) predict an excursion when an intersection of the aircraft predicted taxi path with a shoulder of the airport active surface area occurs within a predetermined distance threshold; and in response to predicting the excursion, generating corrective action associated with the excursion, wherein the corrective action is based on the differential speed of the main landing gear; and displaying, on the display unit, symbology that is graphically representative of (i) the trend line, and (ii) the corrective action. in response to predicting the excursion, generating corrective action associated with the excursion, wherein the corrective action is based on the differential speed of the main landing gear; and displaying, on the display unit, symbology that is graphically representative of (i) the trend line, and (ii) the corrective action.
A method of manufacturing a heat-sealable packaging material, comprising coextrusion onto a fibrous paper, paperboard or cardboard base a multilayer coating comprising an innermost polymer layer containing a blend of (i) 10 to 25 wt-% of a low-density polyethylene (LDPE) and (ii) 75 to 90 wt-% of a second polyethylene with a melt viscosity higher than the melt viscosity of said LDPE, said second polyethylene being selected from linear low-density polyethylene (LLDPE) and high-density polyethylene (HDPE), a middle layer of more than 90 wt-% of HDPE, and an outermost polymer layer of the same blend as said innermost polymer layer, the innermost layer adhering the coating to said fibrous base in direct contact therewith and the outermost layer forming a heat-seal layer, and HDPE and LLDPE as used for the structure being of biologic origin.
printed circuit board, wherein solder contacts with components (31, 32,..) soldered thereon, conductor tracks and regions insulating the solder contacts and/or the conductor tracks from one another are provided on at least one surface of the printed circuit board, wherein a first foil serving as a solder resist layer is applied to at least a majority of the insulating regions, and wherein at least one of the components is arranged between the printed circuit board and the first foil in a direction substantially perpendicular to the surface of the printed circuit board and is at least partially, in particular completely, covered by the first foil, the printed circuit board having at least one uncovered component whose solder contacts are adjoined by the first foil serving as a solder-stop layer, the first foil being arranged between the uncovered component and the printed circuit board, and the foil having a thickness of 50 μm to 150 μm. wherein a first foil serving as a solder resist layer is applied to at least a majority of the insulating regions, and wherein at least one of the components is arranged between the printed circuit board and the first foil in a direction substantially perpendicular to the surface of the printed circuit board and is at least partially, in particular completely, covered by the first foil, the printed circuit board having at least one uncovered component whose solder contacts are adjoined by the first foil serving as a solder-stop layer, the first foil being arranged between the uncovered component and the printed circuit board, and the foil having a thickness of 50 μm to 150 μm.
A dishwasher comprising: a tub at least partially forming a treating chamber; a dish rack provided within the treating chamber and defining a utensil zone in which utensils are received for washing; a spray manifold having multiple sprayers, each sprayer having an outlet through which liquid is sprayed to collectively define a first spray zone directed toward the utensil zone, and each sprayer having a volumetric flow rate requirement; a supply conduit fluidly coupled to the spray manifold and through which liquid is supplied to the spray manifold from a liquid source; and a flow diverter; characterized in that: the spray manifold comprises multiple interior flow paths with unequal volumes, each flow path supplying liquid to at least one of the multiple sprayers; and the flow diverter proportionally divides the liquid supplied from the supply conduit to the multiple sprayers in proportion to the volumetric flow rate requirement of the multiple sprayers. a tub at least partially forming a treating chamber; a dish rack provided within the treating chamber and defining a utensil zone in which utensils are received for washing; a spray manifold having multiple sprayers, each sprayer having an outlet through which liquid is sprayed to collectively define a first spray zone directed toward the utensil zone, and each sprayer having a volumetric flow rate requirement; a supply conduit fluidly coupled to the spray manifold and through which liquid is supplied to the spray manifold from a liquid source; and a flow diverter; characterized in that: the spray manifold comprises multiple interior flow paths with unequal volumes, each flow path supplying liquid to at least one of the multiple sprayers; and the flow diverter proportionally divides the liquid supplied from the supply conduit to the multiple sprayers in proportion to the volumetric flow rate requirement of the multiple sprayers. the spray manifold comprises multiple interior flow paths with unequal volumes, each flow path supplying liquid to at least one of the multiple sprayers; and the flow diverter proportionally divides the liquid supplied from the supply conduit to the multiple sprayers in proportion to the volumetric flow rate requirement of the multiple sprayers.
Motor-vehicle headlight, comprising a gaseous discharge lamp which is associated with a supply circuit, and is fitted in a mirror, and means (16, 30; 22, 40, 51) for shielding against disruptive electromagnetic emissions, the said supply circuit being received in a receptacle which is associated with the lamp at the rear of the latter, the shielding means comprising a conductive material (16; 30) which surrounds the said receptacle entirely, and can ensure the electrical continuity between a shielding braid of a supply cable which reaches the said receptacle, and shielding arrangements which are associated with the mirror, characterised in that the said conductive material is added mechanically onto the exterior of a housing which defines the said receptacle, or is deposited on an outer surface of the said housing.
A method of determining oxygen concentration in a live mammalian cell sample by photoluminescence quenching technique, which method employs a photoluminsecent probe, the method comprising the steps of: - incubating the live mammalian cell sample in a suitable growth medium with the photoluminescent probe to allow passive loading of probe; - detecting a photoluminescent signal of the probe from the probe-loaded cell sample; and - correlating the detected photoluminescent signal to local oxygen concentration within the cell sample, wherein the photoluminescent probe is an aqueous suspension of polymeric particles having an average size of 20 to 100nm and a probe concentration of 0.1 to 100μg/ml, the particles comprising an amphiphilic cationic co-polymer matrix having a hydrophobic core and a hydrophilic positively charged surface provided by quaternary amino groups, and a hydrophobic oxygen-sensitive photoluminescent dye embedded in the hydrophobic core, and wherein the nanoparticulate probe is capable of penetrating the cell and providing a high loading efficiency, a stable photoluminescence intensity signal, and reliable lifetime-based sensing of intracellular oxygen, wherein the co-polymer comprises at least 4% quaternary amino groups. - incubating the live mammalian cell sample in a suitable growth medium with the photoluminescent probe to allow passive loading of probe; - detecting a photoluminescent signal of the probe from the probe-loaded cell sample; and - correlating the detected photoluminescent signal to local oxygen concentration within the cell sample,
A method for wireless communications by a user equipment, UE, comprising: determining that the UE is operating in a first mobility mode; determining whether the UE satisfies at least one condition associated with mobility of the UE for mobility mode selection, comprising determining at least one parameter associated with the UE, wherein the at least one parameter includes one or more of a speed of the UE, a speed threshold of the UE, a radio condition of the UE, location information of the UE, or signal measurements of the UE; selecting a second mobility mode based on a determination that the UE satisfies the at least one condition, wherein the first mobility mode comprises one of an uplink, UL, mobility mode or a downlink, DL, mobility mode and the second mobility mode comprises the other of the UL mobility mode and the DL mobility mode, wherein the UE operating in the UL mobility mode is configured to transmit an UL reference signal used by the network to perform a cell search, and wherein the UE operating in the DL mobility mode is configured to perform the cell search based on a DL reference signal received from the network; and transitioning the UE from the first mobility mode to the selected second mobility mode. determining that the UE is operating in a first mobility mode; determining whether the UE satisfies at least one condition associated with mobility of the UE for mobility mode selection, comprising determining at least one parameter associated with the UE, wherein the at least one parameter includes one or more of a speed of the UE, a speed threshold of the UE, a radio condition of the UE, location information of the UE, or signal measurements of the UE; selecting a second mobility mode based on a determination that the UE satisfies the at least one condition, wherein the first mobility mode comprises one of an uplink, UL, mobility mode or a downlink, DL, mobility mode and the second mobility mode comprises the other of the UL mobility mode and the DL mobility mode, wherein the UE operating in the UL mobility mode is configured to transmit an UL reference signal used by the network to perform a cell search, and wherein the UE operating in the DL mobility mode is configured to perform the cell search based on a DL reference signal received from the network; and transitioning the UE from the first mobility mode to the selected second mobility mode.
Thermoplastic moulding composition consisting of 51 to 69.9 wt% of polyamide elastomer, selected from the group consisting of: polyetheramide, polyetheresteramide, or a mixture thereof, having hard segments selected from the group consisting of: PA6, PA66, PA6/66, PA610, PA612, PA614, PA616 or a combination thereof, and having soft segments in the form of OH- or NH 2 -functionalized polyether segments; 15 to 38 wt% of ethylene-α-olefin copolymer, where the α-olefin is selected from the group consisting of: but-1-ene, pent-1-ene, hex-1-ene, hept-1-ene and oct-1-ene or a combination thereof, and the ethylene-α-olefin copolymer is grafted with at least one system selected from the group consisting of: acrylic acid, methacrylic acid, maleic anhydride, where the degree of grafting is 0.8 to 2.0 wt% based on the grafted ethylene-α-olefin copolymer; 3 to 25 wt% of polyamide selected from the group consisting of: PA6, PA66, PA6/66, PA610, PA612, PA614, PA616, PA6/610, PA66/610 or mixtures thereof; 0.1 to 2.0 wt% of heat stabilizers based on copper and/or iodide, lanthanoid compounds, organic stabilizers or a mixture thereof; 0 to 5.0 wt% of additives, different from to; where the sum of to makes 100 wt% of the total moulding composition and with the proviso that the sum of and is in the range from 30 to 48 wt% based on the total moulding composition. 51 to 69.9 wt% of polyamide elastomer, selected from the group consisting of: polyetheramide, polyetheresteramide, or a mixture thereof, having hard segments selected from the group consisting of: PA6, PA66, PA6/66, PA610, PA612, PA614, PA616 or a combination thereof, and having soft segments in the form of OH- or NH 2 -functionalized polyether segments; 15 to 38 wt% of ethylene-α-olefin copolymer, where the α-olefin is selected from the group consisting of: but-1-ene, pent-1-ene, hex-1-ene, hept-1-ene and oct-1-ene or a combination thereof, and the ethylene-α-olefin copolymer is grafted with at least one system selected from the group consisting of: acrylic acid, methacrylic acid, maleic anhydride, where the degree of grafting is 0.8 to 2.0 wt% based on the grafted ethylene-α-olefin copolymer; 3 to 25 wt% of polyamide selected from the group consisting of: PA6, PA66, PA6/66, PA610, PA612, PA614, PA616, PA6/610, PA66/610 or mixtures thereof; 0.1 to 2.0 wt% of heat stabilizers based on copper and/or iodide, lanthanoid compounds, organic stabilizers or a mixture thereof; 0 to 5.0 wt% of additives, different from to; where the sum of to makes 100 wt% of the total moulding composition and with the proviso that the sum of and is in the range from 30 to 48 wt% based on the total moulding composition.
Dental appliance for machining a dental work piece, with a housing unit, with a work surface unit configured as a support surface (12.1) for the dental work piece and with a machining unit configured for machining the dental work piece, wherein the housing unit forms, in a region of the machining unit, an inclined dust discharge surface (10.1, 14b), wherein the inclined dust discharge surface (10.1) realises an underside of a hollow space formed at least partly by the housing unit and wherein the inclined dust discharge surface (10.1) of the housing unit opens out into a dust catching container, wherein the inclined dust discharge surface (10.1) of the housing unit opens out into an inclined dust-catching-container surface (16.1) of the dust catching container, wherein the inclined dust-catching-container surface (16.1) has a smooth surface, characterised in that the inclined dust-catching-container surface (16.1) continues the inclined dust discharge surface (10.1) of the housing unit.