mhurhangee/ep-ind-claims huggingface dataset:
A haptics device (100, 112, 300) comprising: an input circuit configured to receive audio input, wherein the audio input comprises stereo audio stream; a phase determination circuit (104, 316) configured to determine a phase of the audio input; a peak amplitude determination circuit (106, 316) configured to determine a peak amplitude of the audio input; at least dual actuators (118, 306, 308, 310); and a haptics controller (108, 304) configured to control the at least dual actuators (118, 308, 310) based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; wherein the haptics controller (108, 304) is further configured to position a channel of haptics control signals in time based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; wherein the haptics controller (108, 304) is further configured to position the channel of haptics control signals in phase based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; and wherein the haptics controller (108, 304) is further configured to position the channel of haptics control signals within a relation to the audio input, the relation being based on the determined phase of the audio input and based on the determined peak amplitude of the audio input. an input circuit configured to receive audio input, wherein the audio input comprises stereo audio stream; a phase determination circuit (104, 316) configured to determine a phase of the audio input; a peak amplitude determination circuit (106, 316) configured to determine a peak amplitude of the audio input; at least dual actuators (118, 306, 308, 310); and a haptics controller (108, 304) configured to control the at least dual actuators (118, 308, 310) based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; wherein the haptics controller (108, 304) is further configured to position a channel of haptics control signals in time based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; wherein the haptics controller (108, 304) is further configured to position the channel of haptics control signals in phase based on the determined phase of the audio input and based on the determined peak amplitude of the audio input; and wherein the haptics controller (108, 304) is further configured to position the channel of haptics control signals within a relation to the audio input, the relation being based on the determined phase of the audio input and based on the determined peak amplitude of the audio input.
A method of creating a polymeric nanofiber comprising: introducing at least one reactive monomer under reduced pressure into a reaction chamber having a substrate, wherein a structured fluid is disposed over one or more exposed areas of the substrate and the at least one reactive monomer polymerizes through the structured fluid onto the substrate to form the polymeric nanofiber on the substrate.
Cosmetic stick comprising a) one or more UV filters, b) a Fischer-Tropsch wax having a solidification point of 80-85°C (measured according to ASTM D 938) and a penetration at 25°C of 0.4-0.9 mm (measured according to ASTM D 1321), with the preparation being free of 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (INCI: Oxybenzone), 2-ethylhexyl 4-methoxycinnamate (INCI: Octyl Methoxycinnamate) and ethylhexyl 2-cyano-3,3-diphenylacrylate (INCI: Octocrylene), characterized in that the preparation contains C20-C40 alkyl stearate in a concentration of 0.1% to 20% by weight based on the total weight of the preparation. a) one or more UV filters, b) a Fischer-Tropsch wax having a solidification point of 80-85°C (measured according to ASTM D 938) and a penetration at 25°C of 0.4-0.9 mm (measured according to ASTM D 1321),
A coil body (100, 200, 300) with a first coil body part (100a, 200a, 300a) with a first guiding device (110a, 210a, 310a) that comprises at least one guiding element (111a,..., 114a, 211a,..., 214a), a second coil body part (100b, 200b, 300b) with a second guiding device (110b, 210b, 300b) that comprises at least one guiding element (111b,..., 114b, 211b,..., 214b), wherein the first and the second guiding devices are designed as supports or retainers of one or several windings, and characterized in that the guiding elements of the first and the second guiding devices (110a, 210a, 110b, 210b, 310a, 310b) are designed as longitudinal struts, which extend along a longitudinal axis of the coil body and are in contact with each other and designed in such a manner that by sliding off one another a displacement of the first and second coil body parts along the longitudinal axis of a coil body is adjustable.
An Aspergillus oryzae host cell comprising a polynucleotide encoding a C4 dicarboxylic acid transporter, wherein the C4 dicarboxylic acid transporter has at least 60% sequence identity with SEQ ID NO: 8; wherein the polynucleotide encoding a C4 dicarboxylic acid transporter is selected among a polynucleotide that is not native to the host cell; a native polynucleotide in which structural modifications have been made to the coding region; a native polynucleotide whose expression is altered as a result of manipulation of the DNA; or a native polynucleotide whose expression is quantitatively altered by the introduction of one or more extra copies of the polynucleotide into the host cell; and wherein the host cell is capable of secreting increased levels of C4 dicarboxylic acid compared to the host cell without the polynucleotide encoding the C4 dicarboxylic acid transporter when cultivated under the same conditions.
Garment for wearing outdoors, which consists of a single part or is sewn together from a plurality of parts, which single part or which single parts each consist of a warp-knitted laminate, and which laminate is at least built up from • a warp-knitted fabric, the warp-knitted fabric forming the outer shell of the garment, • followed by a film on the inner side of this warp-knitted fabric, which film is stretchable in all directions, is waterproof but vapor-permeable and is glued on full-surface and, following inwards • a warp-knitted fabric or knitted fabric of fluffy thread as thermal insulation, and • on the very inside, a flatly or circularly knitted or warp-knitted or woven inner lining which is suspended from the warp-knitted fabric or knitted fabric being the thermal insulation or is detachably or firmly fastened thereto by means of seams or stitches. • a warp-knitted fabric, the warp-knitted fabric forming the outer shell of the garment, • followed by a film on the inner side of this warp-knitted fabric, which film is stretchable in all directions, is waterproof but vapor-permeable and is glued on full-surface • a warp-knitted fabric or knitted fabric of fluffy thread as thermal insulation, and • on the very inside, a flatly or circularly knitted or warp-knitted or woven inner lining which is suspended from the warp-knitted fabric or knitted fabric being the thermal insulation or is detachably or firmly fastened thereto by means of seams or stitches.
A method for preparing a natural beef flavor, comprising: (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium sp. microorganism to prepare an inosine-5'-monophosphate fermented broth; and (c) mixing another part of the grain fermented broth of step (a) and the IMP fermented broth of step (b), and reacting the mixture at 80 to 120°C at 0.8 to 1.5 bar for 0.5 to 24 hours. (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium sp. microorganism to prepare an inosine-5'-monophosphate fermented broth; and (c) mixing another part of the grain fermented broth of step (a) and the IMP fermented broth of step (b), and reacting the mixture at 80 to 120°C at 0.8 to 1.5 bar for 0.5 to 24 hours.
A method for obtaining quick cook rice comprising the following steps: (i) heating dry rice grains in microwave equipment to a temperature between 60 °C and 90 °C during 8 minutes, and (ii) wetting the surface of the dry rice grains with an aqueous solution every 2 to 6 minutes during step (i), without steeping the dry rice grains, wherein the dry rice grains belong to the species Oryza sativa ssp. Japonica and wherein the aqueous solution used in step (ii) is between 5 and 7 ml of water for every 100 grams of dry rice grains. (i) heating dry rice grains in microwave equipment to a temperature between 60 °C and 90 °C during 8 minutes, and (ii) wetting the surface of the dry rice grains with an aqueous solution every 2 to 6 minutes during step (i), without steeping the dry rice grains,
An implantable medical device, comprising: a body assembly that provides at least one electrical signal corresponding to a therapy; a cardiac lead assembly having a proximal portion, a distal portion and a transition zone between the proximal portion and the distal portion, the proximal portion having a first multilumen tubing member in communication with the body assembly to receive the therapy, the first multilumen tubing member extending from the body assembly to the transition zone, the first multilumen tubing member including a plurality of inner conduits, with one of the plurality of inner conduits having a greater diameter than a remainder of the plurality of inner conduits (154a, 154b, 154c), the one of the plurality of conduits with the greater diameter positioned along a central axis of the first multilumen tubing member and the distal portion having a second multilumen tubing member 8162) extending from the transition zone to a distalmost end of the cardiac lead assembly, the second multilumen tubing member adapted to be coupled to an anatomical structure to transmit the at least one electrical signal to the anatomical structure, the second multilumen tubing member including a plurality of inner conduits, the plurality of inner conduits positioned symmetrically around an axis perpendicular to a longitudinal axis of the second multilumen tubing member, the proximal portion having a first stiffness and the distal portion having a second stiffness, wherein the first stiffness is greater than the second stiffness. a body assembly that provides at least one electrical signal corresponding to a therapy; a cardiac lead assembly having a proximal portion, a distal portion and a transition zone between the proximal portion and the distal portion, the proximal portion having a first multilumen tubing member in communication with the body assembly to receive the therapy, the first multilumen tubing member extending from the body assembly to the transition zone, the first multilumen tubing member including a plurality of inner conduits, with one of the plurality of inner conduits having a greater diameter than a remainder of the plurality of inner conduits (154a, 154b, 154c), the one of the plurality of conduits with the greater diameter positioned along a central axis of the first multilumen tubing member and the distal portion having a second multilumen tubing member 8162) extending from the transition zone to a distalmost end of the cardiac lead assembly, the second multilumen tubing member adapted to be coupled to an anatomical structure to transmit the at least one electrical signal to the anatomical structure, the second multilumen tubing member including a plurality of inner conduits, the plurality of inner conduits positioned symmetrically around an axis perpendicular to a longitudinal axis of the second multilumen tubing member, the proximal portion having a first stiffness and the distal portion having a second stiffness, wherein the first stiffness is greater than the second stiffness.
A multiwavelength switch, comprising: at least one optical input for receiving an optical beam; at least two optical outputs; a dispersion element receiving the optical beam from the optical input and spatially separating the optical beam into a plurality of wavelength components; a collimating element for collimating the plurality of wavelength components along a first axis and focusing the plurality of wavelength components along a second axis orthogonal to the first axis; and an actuatable optical arrangement receiving the collimated plurality of wavelength components from the collimating element, said actuatable optical arrangement including a digital micromirror device from which at least one wavelength component is reflected at least twice before being directed to a selected one of optical outputs, characterized in that a first set of mirror elements of the digital micromirror device is adapted to be actuated for switching a wavelength essentially lossless and a second set of mirror elements of the micromirror device is adapted to be actuated for switching a wavelength with a controllabe amount of attenuation. at least one optical input for receiving an optical beam; at least two optical outputs; a dispersion element receiving the optical beam from the optical input and spatially separating the optical beam into a plurality of wavelength components; a collimating element for collimating the plurality of wavelength components along a first axis and focusing the plurality of wavelength components along a second axis orthogonal to the first axis; and an actuatable optical arrangement receiving the collimated plurality of wavelength components from the collimating element, said actuatable optical arrangement including a digital micromirror device from which at least one wavelength component is reflected at least twice before being directed to a selected one of optical outputs, characterized in that a first set of mirror elements of the digital micromirror device is adapted to be actuated for switching a wavelength essentially lossless and a second set of mirror elements of the micromirror device is adapted to be actuated for switching a wavelength with a controllabe amount of attenuation.
A process for the formation of an assembly comprising a compacted porous film comprising a) application of a porous film having an initial density onto an elastic substrate in a stretched state such that a reversible adhesion of the film on the stretched substrate occurs, and b) relaxing the substrate with the applied film thereon to obtain a compacted porous film, wherein an outer shape of the compacted porous film is flat and does not show geometric out-of-plane structures, wherein the density of the compacted porous film with respect to the initial density of the porous film increases by at least 10%, c) applying a support material to a part of the compacted film so that the compacted film is partially releasable from the support material, such that the compacted porous film is releasable in a part to which no support material is attached and that the compacted film is not releasable in a part to which support material is attached, and when the elastic substrate is in its stretched state the compacted porous film adheres to the elastic substrate and when the elastic substrate is relaxed the compacted porous film may be removed from the elastic substrate without destroying the compacted porous film. a) application of a porous film having an initial density onto an elastic substrate in a stretched state such that a reversible adhesion of the film on the stretched substrate occurs, and b) relaxing the substrate with the applied film thereon to obtain a compacted porous film, wherein an outer shape of the compacted porous film is flat and does not show geometric out-of-plane structures, wherein the density of the compacted porous film with respect to the initial density of the porous film increases by at least 10%, c) applying a support material to a part of the compacted film so that the compacted film is partially releasable from the support material, such that the compacted porous film is releasable in a part to which no support material is attached and that the compacted film is not releasable in a part to which support material is attached,
An in vitro method for monitoring the effect of an anti-cancer agent which is an ERK inhibitor on tumor volume or blood cancer status in the body of a subject to which said anti-cancer agent has been administered comprising monitoring said tumor volume or blood cancer status comprising determining IL-8 levels in the subject over time wherein tumor volume is determined to have increased or the blood cancer is determined to have progressed if IL-8 levels increased and wherein tumor volume is determined to have decreased or the blood cancer is determined to have regressed if IL-8 levels decreased; wherein the anti-cancer agent is determined to be effective if the agent is determined to have decreased tumor volume or to have regressed the blood cancer; and wherein the anti-cancer agent is determined not to be effective if the agent is determined not to have decreased tumor volume or not to have regressed the blood cancer.
A control apparatus for a hybrid vehicle, the hybrid vehicle having: an engine in which fuel is combusted to enable an output of a driving force; a motor which is enabled to output the driving force by means of an electric power; a continuously variable transmission which is enabled to perform a continuously variable transmission between an input and an output by means of a hydraulic pressure supplied from an oil pump; a first clutch disposed between the engine and the motor; a second clutch disposed between the motor and the continuously variable transmission; and control means for controlling the engine, the motor, the continuously variable transmission, the first clutch and the second clutch, the engine and the motor providing driving sources for the oil pump, the control means comprising: coast stop control means for stopping a fuel supply to the engine when the vehicle is traveling, an accelerator pedal is not depressed, a brake pedal is depressed, and a select position of the continuously variable transmission is in a travelling position; and low return control means for returning a transmission gear ratio of the continuously variable transmission to a low side during a stop of the vehicle after the second clutch is released and the engine is restarted in a case where the transmission gear ratio of the continuously variable transmission is a midway transmission gear ratio which is higher than a predetermined transmission gear ratio, when the coast stop control means is operated and the vehicle is detected to be stopped. coast stop control means for stopping a fuel supply to the engine when the vehicle is traveling, an accelerator pedal is not depressed, a brake pedal is depressed, and a select position of the continuously variable transmission is in a travelling position; and low return control means for returning a transmission gear ratio of the continuously variable transmission to a low side during a stop of the vehicle after the second clutch is released and the engine is restarted in a case where the transmission gear ratio of the continuously variable transmission is a midway transmission gear ratio which is higher than a predetermined transmission gear ratio, when the coast stop control means is operated and the vehicle is detected to be stopped.
A closure comprising a) a cap having a b) a closure base having an opening, c) the cap having a depending plug, characterized in that the depending plug has at least one flap extending radially outwardly from the plug when the cap is in the open position, and in that the at least one flap being deformable such that upon closing of the cap the flap folds upwardly whereby the upwardly extending flap provides interference with the opening of the cap. a) a cap having a b) a closure base having an opening, c) the cap having a depending plug
An LED lamp with a protrusion and a surge protection module, comprising: an LED support, an LED driving chip, an LED chip and the surge protection module, wherein the LED support comprises a depressed cavity, and a first electrode, a second electrode, a third electrode and a fourth electrode which are spaced from each other; the depressed cavity comprises a bottom surface, and a circumferential side extending generally upward at a peripheral edge of the bottom surface to form the depressed cavity; characterized in that the LED lamp further comprises an inside protrusion in the depressed cavity is disposed on an upper surface of the bottom surface of the depressed cavity in a direction in which the bottom surface of the depressed cavity faces upward; the LED driving chip and the surge protection module are both disposed on the second electrode at one side of the inside protrusion; and the LED chip is disposed on the fourth electrode at the other side of the inside protrusion. an LED support, an LED driving chip, an LED chip and the surge protection module, wherein the LED support comprises a depressed cavity, and a first electrode, a second electrode, a third electrode and a fourth electrode which are spaced from each other; the depressed cavity comprises a bottom surface, and a circumferential side extending generally upward at a peripheral edge of the bottom surface to form the depressed cavity; characterized in that the LED lamp further comprises an inside protrusion in the depressed cavity is disposed on an upper surface of the bottom surface of the depressed cavity in a direction in which the bottom surface of the depressed cavity faces upward; the LED driving chip and the surge protection module are both disposed on the second electrode at one side of the inside protrusion; and the LED chip is disposed on the fourth electrode at the other side of the inside protrusion.
A dispensing device of a fluid substance, comprising a container provided with an opening to access its interior, and a dispensing pump of hermetic type, coupled with the container to deliver the fluid contained inside the container, and a sealing element positioned between the container and the pump, the sealing element comprising a flange resting against a free surface of the container perpendicular to a longitudinal axis of the container, wherein the sealing element comprises a first tubular wall extending internally to the container and achieving an air-tight seal on its internal surface, the sealing element further comprising a second tubular wall extending internally to the container and which engages an outer cylindrical surface of a body of the pump positioned internally to the container, the first and second tubular wall being configured to perform an air-tight seal when a part of the sealing element connecting the first and the second tubular element is undeformed, the flange extending from said part of the sealing element, characterized in that the pump comprises a flange resting on said undeformed part of the sealing element.