mhurhangee/ep-ind-claims huggingface dataset:
A laterally-coalesced organic polymeric foam slab; wherein the foam slab is a unitary foam slab that is made in a single operation by the lateral coalescence and solidification of molten flowstreams and that cannot be separated into parts without unacceptably damaging or destroying the foam slab, and, wherein the foam slab is compositionally uniform along a long axis of the foam slab and wherein at least eight interfacial boundaries are encountered in traversing the width of the foam slab along a lateral axis of the foam slab; and, wherein the interfacial boundaries are aligned within clockwise or counterclockwise 30 degrees of a thickness axis of the foam slab.
A vacuum comprising: a housing; a vacuum source (16, 18) disposed in said housing; a power outlet disposed on said housing; a power tool sensing system for sensing operation of a power tool plugged into said power outlet; and a controller for operating said vacuum source (16, 18) in response to a sensed operation of said power tool; wherein said power tool sensing system includes a current transformer for sensing current passing through a wire carrying current to said power tool, said power tool sensing circuit senses a voltage applied to the power tool and said controller operates said vacuum source (16, 18) in response to voltage dips and turns off said vacuum source (16, 18) in response to voltage spikes. a housing; a vacuum source (16, 18) disposed in said housing; a power outlet disposed on said housing; a power tool sensing system for sensing operation of a power tool plugged into said power outlet; and a controller for operating said vacuum source (16, 18) in response to a sensed operation of said power tool; wherein said power tool sensing system includes a current transformer for sensing current passing through a wire carrying current to said power tool, said power tool sensing circuit senses a voltage applied to the power tool and said controller operates said vacuum source (16, 18) in response to voltage dips and turns off said vacuum source (16, 18) in response to voltage spikes.
A low-beam primary optical element, comprising a light entrance portion, a light passage portion and a light exit portion which are sequentially arranged from back to front, characterised in that the light exit portion comprises a main light exit surface and a secondary light exit surface, wherein a transition surface which is an arc surface is arranged between the main light exit surface and the secondary light exit surface, and the transition surface is configured to smoothly connect the main light exit surface with the secondary light exit surface, a lower surface of the light passage portion and the secondary light exit surface intersect to form the low-beam cutoff line structure, and the secondary light exit surface is configured to refract light emitted to the low-beam cutoff line structure forward and upward.
A color conversion element comprising: a substrate and a wavelength conversion layer disposed on the substrate; one or more low refractive layers (400a, 400b) which are disposed on top of and/or under the wavelength conversion layer relative to the substrate and have a lower refractive index than the wavelength conversion layer; and one or more capping layers which are disposed between the wavelength conversion layer and the one or more low refractive layers and/or on a surface opposite to a surface of each of the low refractive layers which faces the wavelength conversion layer, wherein each of the one or more low refractive layers (400a, 400b) comprises inorganic particles, each of the inorganic particles including a shell and a hole defined in the shell and surrounded by the shell, characterized in that each of the one or more capping layers is made of an inorganic layer. a substrate and a wavelength conversion layer disposed on the substrate; one or more low refractive layers (400a, 400b) which are disposed on top of and/or under the wavelength conversion layer relative to the substrate and have a lower refractive index than the wavelength conversion layer; and one or more capping layers which are disposed between the wavelength conversion layer and the one or more low refractive layers and/or on a surface opposite to a surface of each of the low refractive layers which faces the wavelength conversion layer, wherein each of the one or more low refractive layers (400a, 400b) comprises inorganic particles, each of the inorganic particles including a shell and a hole defined in the shell and surrounded by the shell, characterized in that each of the one or more capping layers is made of an inorganic layer.
A bus bar unit, comprising: a plurality of separate first resin parts; a plurality of bus bars that are configured to electrically connect an external electric source and a coil of a rotary electric machine, that are each separately covered by the first resin parts and that each have a protrusion portion which protrudes toward the coil from a first end portion of the first resin part; and a second resin part that has a second end portion which is positioned on an opposite side of the protrusion portion with respect to the first end portion in an extension direction of the protrusion portion and that covers all of the first resin parts together in a state where the first resin parts protrudes in the extension direction, wherein a portion of the first resin parts that is positioned between the first end portion and the second end portion is formed in a flat surface. a plurality of separate first resin parts; a plurality of bus bars that are configured to electrically connect an external electric source and a coil of a rotary electric machine, that are each separately covered by the first resin parts and that each have a protrusion portion which protrudes toward the coil from a first end portion of the first resin part; and a second resin part that has a second end portion which is positioned on an opposite side of the protrusion portion with respect to the first end portion in an extension direction of the protrusion portion and that covers all of the first resin parts together in a state where the first resin parts protrudes in the extension direction, wherein a portion of the first resin parts that is positioned between the first end portion and the second end portion is formed in a flat surface.
A method for removing volatile silicon containing compounds (VSCC) from an airstream by ultraviolet photocatalytic oxidation (UV-PCO), the method comprising passing the airstream through a filter, said filter comprising: a filter body comprising at least one member selected from a group consisting of nanofiber material, microfiber material, granular material, homogeneous material, crystalline material, glassy material, multimaterial material, layered structure material, composited structure material, and mixtures thereof; and an additive attached to a surface of the filter body and chemically attractive to volatile silicon-containing compounds (VSCCs), wherein the additive creates an acidic site on the surface of the filter body and said additive comprises at least one of sulfuric acid, trifluoromethane sulfuric acid, a sulfonic acid group, and a polyelectrolyte containing at least one sulfonic acid group, or wherein said additive comprises a reaction-inducing material being an iron-doped silica network, an iron-doped titania network, an iron-doped titania-tungsten network, or a mixture thereof; and passing the airstream from the filter to a photocatalytic reactor. a filter body comprising at least one member selected from a group consisting of nanofiber material, microfiber material, granular material, homogeneous material, crystalline material, glassy material, multimaterial material, layered structure material, composited structure material, and mixtures thereof; and an additive attached to a surface of the filter body and chemically attractive to volatile silicon-containing compounds (VSCCs), wherein the additive creates an acidic site on the surface of the filter body and said additive comprises at least one of sulfuric acid, trifluoromethane sulfuric acid, a sulfonic acid group, and a polyelectrolyte containing at least one sulfonic acid group, or wherein said additive comprises a reaction-inducing material being an iron-doped silica network, an iron-doped titania network, an iron-doped titania-tungsten network, or a mixture thereof; and passing the airstream from the filter to a photocatalytic reactor.
A vaccination system for delivering a plurality of vaccine substances to avian pullets, comprising: a vaccine delivery assembly for delivering a plurality of vaccine substances to an avian pullet, the vaccine delivery assembly comprising a vaccine delivery frame having a plurality of delivery devices operably engaged therewith including: a wing web injection device to deliver a vaccine substance to a wing web of the avian pullet; a subcutaneous injection device to deliver a vaccine substance to an inguinal fold of the avian pullet; an intramuscular injection device to deliver a vaccine substance to a breast of the avian pullet; and a main actuator 460 capable of moving an intramuscular injection actuator 461, a subcutaneous injector actuator 462, and a wing web injection actuator 463 to a position that allows for injection of the respective body part of the avian pullet; and a plurality of positioning devices, wherein each positioning device presents the avian pullet to the vaccine delivery assembly for the vaccine delivery procedure in a posture resembling its flight form in which the wings of the avian pullet are held together and vertical above the back of the avian pullet. a wing web injection device to deliver a vaccine substance to a wing web of the avian pullet; a subcutaneous injection device to deliver a vaccine substance to an inguinal fold of the avian pullet; an intramuscular injection device to deliver a vaccine substance to a breast of the avian pullet; and a main actuator 460 capable of moving an intramuscular injection actuator 461, a subcutaneous injector actuator 462, and a wing web injection actuator 463 to a position that allows for injection of the respective body part of the avian pullet; and a plurality of positioning devices, wherein each positioning device presents the avian pullet to the vaccine delivery assembly for the vaccine delivery procedure in a posture resembling its flight form in which the wings of the avian pullet are held together and vertical above the back of the avian pullet.
A turbomachine (10, 210, 310) arranged with a rotor (10R, 110R) and a stator, the turbomachine comprising: • a fluid-flow portion enabling energy to be exchanged between a fluid passing therethrough and the rotor (10R, 110R), including at least one bladed wheel mounted on a shaft of the rotor; • an electrical portion (50, 250, 350) suitable for converting electricity into work or vice versa; • radial positioning means (40, 42; 240, 242; 340, 342) serving to position the rotor radially; and • a contactless axial balancing device arranged on said bladed wheel, providing axial balancing for the rotor (10R, 110R) at high speed; the turbomachine being characterized in that: • it further comprises a thrust bearing (36, 136) distinct from the radial positioning means (40, 42; 140, 142), which thrust bearing provides axial balancing of the rotor at low speed, and is contactless at high speed; and • the radial positioning means are constituted solely by hydrostatic bearings, the turbomachine including hydrostatic bearing feed circuits (44, 46, 48) suitable for connecting said bearings to a source of fluid under pressure. • a fluid-flow portion enabling energy to be exchanged between a fluid passing therethrough and the rotor (10R, 110R), including at least one bladed wheel mounted on a shaft of the rotor; • an electrical portion (50, 250, 350) suitable for converting electricity into work or vice versa; • radial positioning means (40, 42; 240, 242; 340, 342) serving to position the rotor radially; and • a contactless axial balancing device arranged on said bladed wheel, providing axial balancing for the rotor (10R, 110R) at high speed; • it further comprises a thrust bearing (36, 136) distinct from the radial positioning means (40, 42; 140, 142), which thrust bearing provides axial balancing of the rotor at low speed, and is contactless at high speed; and • the radial positioning means are constituted solely by hydrostatic bearings, the turbomachine including hydrostatic bearing feed circuits (44, 46, 48) suitable for connecting said bearings to a source of fluid under pressure.
Blade for a mowing unit for a lawnmower and/or a motor scythe, - wherein the blade is substantially parallelogram-shaped, - wherein the blade has a slot, - wherein the slot is designed to receive a blade-holding element of the mowing unit such - that the blade can rotate about the blade-holding element and move in translation relative to the blade-holding element for one cutting position (SPa) of the blade defined by one end of the slot having one cutting orientation (SRa) of the blade and another cutting position (SPb) of the blade defined by another end of the slot having another cutting orientation (SRb) of the blade, and - wherein a line segment delimited by the ends (2Ea, 2Eb) of the slot does run non-parallel to sides (PAa, PAb, PAc, PAd) of the parallelogram, - characterized in that the parallelogram has an obtuse internal angle (β, δ), wherein the obtuse internal angle (β, δ) is at least 95°, and in particular at most 120°, in particular 100°. - wherein the blade is substantially parallelogram-shaped, - wherein the blade has a slot, - wherein the slot is designed to receive a blade-holding element of the mowing unit such - that the blade can rotate about the blade-holding element and move in translation relative to the blade-holding element for one cutting position (SPa) of the blade defined by one end of the slot having one cutting orientation (SRa) of the blade and another cutting position (SPb) of the blade defined by another end of the slot having another cutting orientation (SRb) of the blade, and - wherein a line segment delimited by the ends (2Ea, 2Eb) of the slot does run non-parallel to sides (PAa, PAb, PAc, PAd) of the parallelogram, - characterized in that the parallelogram has an obtuse internal angle (β, δ), wherein the obtuse internal angle (β, δ) is at least 95°, and in particular at most 120°, in particular 100°.
An imprinting apparatus (100, 100a), comprising: an imprinting platform having a first side and a second side opposite to each other; an imprinting roller disposed above the imprinting platform; a transfer module comprising a transfer film and a fixed frame and a movable frame that clamp opposite sides of the transfer film, wherein the transfer film is located between the imprinting roller and the imprinting platform, the fixed frame is fixed beside the first side of the imprinting platform, the movable frame is disposed on the second side of the imprinting platform, and the movable frame is adapted to move horizontally relative to the fixed frame to change a flatness of the transfer film; and a film separation module connected to the movable frame of the transfer module, and being adapted to drive the movable frame to be turned from a first position to a second position, such that a rounded corner is formed between the transfer film and the imprinting roller. an imprinting platform having a first side and a second side opposite to each other; an imprinting roller disposed above the imprinting platform; a transfer module comprising a transfer film and a fixed frame and a movable frame that clamp opposite sides of the transfer film, wherein the transfer film is located between the imprinting roller and the imprinting platform, the fixed frame is fixed beside the first side of the imprinting platform, the movable frame is disposed on the second side of the imprinting platform, and the movable frame is adapted to move horizontally relative to the fixed frame to change a flatness of the transfer film; and a film separation module connected to the movable frame of the transfer module, and being adapted to drive the movable frame to be turned from a first position to a second position, such that a rounded corner is formed between the transfer film and the imprinting roller.
A polycarbonate resin composition comprising 0.01 to 1 part by mass of a metal salt compound and 0.3 to 5 parts by mass of a polysilane having an aryl group relative to 100 parts by mass of the polycarbonate resin, wherein the metal salt compound is an organic sulfonic acid alkali metal salt, wherein the organic sulfonic acid alkali metal salt is a fluorine-containing aliphatic sulfonic acid alkali metal salt, and wherein the polysilane has a number-average molecular weight of 300 to 200,000, wherein the number-average molecular weight [Mn] of the polysilane having an aryl group is a polystyrene equivalent value measured by gel permeation chromatography at a temperature of 40°C using tetrahydrofuran as a solvent.
A system for the monitoring and/or controlling emission levels of nitrogen oxide and a reductant from a stream of combustion exhaust from an internal combustion engine, wherein the internal combustion engine includes a selective catalytic reduction unit disposed in the stream of combustion exhaust between an upstream conduit that directs the stream of combustion exhaust to the selective catalytic reduction unit and a downstream conduit that directs the stream of combustion exhaust away from the selective catalytic reduction unit, the selective catalytic reduction unit having a catalyst that is configured to catalytically reduce nitrogen oxides contained in the combustion exhaust to elemental nitrogen in the presence of a reductant and oxygen, and wherein the internal combustion engine further includes a reductant injector that injects the reductant into the flow of combustion exhaust upstream of the selective catalytic reduction unit, the system comprising: a first tunable diode laser spectroscopy unit (300, 204) that is disposed in the downstream conduit; a second tunable diode laser spectroscopy unit (300, 208) that is disposed upstream of the reductant injector in the upstream conduit; and a control unit; wherein the first tunable laser spectroscopy unit (300, 204) and the second tunable laser absorption spectroscopy unit (300, 208) are each configured to measure the concentration level of at least nitrogen oxide in the stream of combustion exhaust and provide data to the control unit relating to the measured concentration level of nitrogen oxide; and the first tunable laser spectroscopy unit (300, 204) is configured to further measure the concentration level of the reductant in the stream of combustion exhaust and to provide data to the control unit relating to the measured concentration level of the reductant; and wherein said data are provided with a lag time of less than 1 second. a first tunable diode laser spectroscopy unit (300, 204) that is disposed in the downstream conduit; a second tunable diode laser spectroscopy unit (300, 208) that is disposed upstream of the reductant injector in the upstream conduit; and a control unit; wherein the first tunable laser spectroscopy unit (300, 204) and the second tunable laser absorption spectroscopy unit (300, 208) are each configured to measure the concentration level of at least nitrogen oxide in the stream of combustion exhaust and provide data to the control unit relating to the measured concentration level of nitrogen oxide; and the first tunable laser spectroscopy unit (300, 204) is configured to further measure the concentration level of the reductant in the stream of combustion exhaust and to provide data to the control unit relating to the measured concentration level of the reductant; and wherein said data are provided with a lag time of less than 1 second.
A method for targeted modification of a genomic locus of interest in a pluripotent rat cell, comprising: (a) introducing into the pluripotent rat cell a large targeting vector (LTVEC) comprising an insert nucleic acid flanked by a 5' homology arm complementary to a first nucleic acid sequence at the genomic locus of interest and a 3' homology arm complementary to a second nucleic acid sequence at the genomic locus of interest, wherein the sum total of the 5' and the 3' homology arms is at least 10 kb; and (b) identifying a genetically modified pluripotent rat cell comprising a targeted genetic modification at the genomic locus of interest, wherein the targeted genetic modification is capable of being transmitted through the germline; wherein the pluripotent rat cell to be used for targeted modification of the genomic locus of interest is obtainable by culturing isolated rat embryonic stem cells on a feeder cell layer that is not modified to express leukemia inhibitory factor with a medium comprising about 50 U/mL to about 150 U/mL LIF and a combination of inhibitors consisting of a MEK pathway inhibitor and a GSK3 inhibitor; wherein the pluripotent rat cell lacks expression of c-Myc; wherein the pluripotent rat cell forms spherical, free-floating colonies in culture; and wherein the modified pluripotent rat cell has a normal karyotype. (a) introducing into the pluripotent rat cell a large targeting vector (LTVEC) comprising an insert nucleic acid flanked by a 5' homology arm complementary to a first nucleic acid sequence at the genomic locus of interest and a 3' homology arm complementary to a second nucleic acid sequence at the genomic locus of interest, wherein the sum total of the 5' and the 3' homology arms is at least 10 kb; and (b) identifying a genetically modified pluripotent rat cell comprising a targeted genetic modification at the genomic locus of interest,
A system for choosing at least a cost metric for an application endpoint selection in response to an application service request, this system comprising a look-up table configured for mapping a group of candidate application endpoints for serving the application service request to a configuration pointer, this configuration pointer pointing to predefined configuration data, these predefined configuration data including at least a cost metric on the basis of which an application endpoint is to be selected among the group of candidate application endpoints, and the system further comprising an Application-Layer Traffic Optimization client for formulating the pointed configuration data into a multi-cost metrics request or several single cost metric requests to be transmitted to an Application-Layer Traffic Optimization server.