mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic, non-therapeutic use of a composition comprising: i) a cellular extract which is a cytoplasmic fraction of salmon or trout eggs prepared by removing nuclear, cell membrane, and other water insoluble materials naturally associated with the cells, and wherein said extract is an aqueous extract comprising water soluble cellular components selected from proteins, mRNA and carbohydrates; and ii) a lipid component from a different source than said eggs; and optionally iii) purified or synthetic nucleic acid sequences, polypeptides, carbohydrates, lipids, signalling substance or natural products or combinations thereof; and optionally iv) an epigenetic inhibitor; for removing wrinkles, for rejuvenation of skin, for improving the appearance of skin, or to provide nutrients to skin. i) a cellular extract which is a cytoplasmic fraction of salmon or trout eggs prepared by removing nuclear, cell membrane, and other water insoluble materials naturally associated with the cells, and wherein said extract is an aqueous extract comprising water soluble cellular components selected from proteins, mRNA and carbohydrates; and ii) a lipid component from a different source than said eggs; and optionally iii) purified or synthetic nucleic acid sequences, polypeptides, carbohydrates, lipids, signalling substance or natural products or combinations thereof; and optionally iv) an epigenetic inhibitor;
A bag comprising: a storage compartment having a volume, the volume defined by: a top wall, a bottom wall opposite the top wall, first and second end walls (50, 60), the first and second end walls (50, 60) opposite one another and joining the top and bottom wall s, the first end wall joining the top wall at a first junction and joining the bottom wall at a second junction, a first side wall disposed between the top wall and the bottom wall and between the first and second end walls (50, 60), and a second side wall opposite the first side wall, the second side wall disposed between the top wall and the bottom wall and between the first end wall and second end walls, the storage compartment accessible from outside the storage compartment by an opening in one or more of the walls; an adjustment mechanism coupled near the first junction, the adjustment mechanism collapsing the first end wall and reducing the volume proximal to the first end wall by reducing a distance between the first junction and the second junction, wherein the adjustment mechanism does not traverse a substantial portion of the first side wall; and a strap joined to the bag near the first junction and joined to the bag near a third junction between the top wall and the second end wall, wherein the adjustment mechanism includes a first mating component attached to the bag near the first junction and a second mating component attached near the second junction, and wherein the first mating component releasably connects to the second mating component to reduce the distance, characterized in that the first mating component is attached to the strap.
A setting tool system, comprising: a housing, comprising: a first conduit configured to receive one or more anchoring systems at a first end; a second conduit comprising a weighted shaft configured to freely move within the length of the second conduit, wherein the first and second conduits merge at a second end opposite the first end; and a head comprising an opening at the second end, wherein each of the one or more anchoring systems inserted at the first end are individually received at the opening at the second end, and wherein a top surface of each of the one or more anchoring systems contacts the weighted shaft, and wherein a bottom surface of each of the one or more anchoring systems contacts an external surface, and wherein each of the one or more anchoring systems are fastened via the weighted shaft to the external surface, characterized in that the second conduit is at least partially separated from the first conduit by an interior wall. a first conduit configured to receive one or more anchoring systems at a first end; a second conduit comprising a weighted shaft configured to freely move within the length of the second conduit, wherein the first and second conduits merge at a second end opposite the first end; and a head comprising an opening at the second end, wherein each of the one or more anchoring systems inserted at the first end are individually received at the opening at the second end, and wherein a top surface of each of the one or more anchoring systems contacts the weighted shaft, and wherein a bottom surface of each of the one or more anchoring systems contacts an external surface, and wherein each of the one or more anchoring systems are fastened via the weighted shaft to the external surface, characterized in that the second conduit is at least partially separated from the first conduit by an interior wall.
Process for preparing an edible fat slurry comprising 60-98% by weight (on the total slurry of oil and fat powder) of an edible oil phase and 2-40% by weight (on the total slurry of oil and fat powder) of fat powder, wherein the fat powder is a powder of a structuring fat, said process comprising the steps of: a) providing the fat powder in a mixing vessel; b) providing the oil phase in an oil vessel; c) reducing the pressure in the mixing vessel comprising the fat powder to a pressure of less than 0.3 bar; d) adding the required amount of oil phase from the oil vessel to the mixing vessel to provide a combined oil phase and fat powder of the above composition; e) mixing the combined oil phase and fat powder to a fat slurry, wherein the fat powder in step a) is provided to the mixing vessel by feeding the structuring fat in melted form to a nozzle, which nozzle is connected to the mixing vessel, and wherein the structuring fat in melted form is cooled to solidify so as to yield the fat powder, wherein the fat powder is provided to the mixing vessel by spraying melted structuring fat through the nozzle into the mixing vessel, and wherein the structuring fat being sprayed through the nozzle comprises, dissolved in the melted structuring fat, a component gaseous at ambient conditions. a) providing the fat powder in a mixing vessel; b) providing the oil phase in an oil vessel; c) reducing the pressure in the mixing vessel comprising the fat powder to a pressure of less than 0.3 bar; d) adding the required amount of oil phase from the oil vessel to the mixing vessel to provide a combined oil phase and fat powder of the above composition; e) mixing the combined oil phase and fat powder to a fat slurry,
A condensed polycyclic aromatic compound represented by general formula: wherein A represents a 1,5-dihydronaphthalene ring or a 2,6-dihydronaphthalene ring; R 1, R 2, R 3 and R 4 each independently represent a hydrogen atom, a halogen atom, a substituted or unsubstituted aliphatic hydrocarbon group, a substituted or unsubstituted alicyclic hydrocarbon group, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted hydrocarbon oxy group, a substituted or unsubstituted ester group, a substituted or unsubstituted acyl group or a substituted or unsubstituted cyano group; and X 1 and X 2 each independently represent an oxygen atom, a sulfur atom or a selenium atom.
Face seal for sealing a radial area between a rotatable shaft and an internal surface (7, which defines a through hole in a house, wherein said radial area extends from an area located externally of the house to a first internal area (B 1) in the house, where a higher pressure prevails than in the external area, wherein the face seal comprises a static part adapted to be attached to said internal surface, and comprising a first sealing element, and a rotatable part adapted to be attached to the shaft, and comprising a second sealing element, wherein said sealing elements (9, 13) are adapted to abut against each other in a position, in which they divide said radial area in a first part, which is in contact with the the external area, and a second part, which is in contact with the first internal area (Bi), characterised in that the face seal comprises a pressure relieving device (15, 16, 17, 18), adapted to be arranged in the second part of the radial area, where it provides a pressure fall between the first internal area (B 1) and a zone (6b 1) in connection with said sealing elements (9, 13), so that a lower pressure is created in said zone (6b 1) in connection with the sealing elements (9, 13), than in the first internal area (B 1).
A sealing structure of a terminal member to be press-fitted in a terminal hole of a base, wherein the terminal member includes a press-fitted portion to be press-fitted in the terminal hole and a terminal portion extending from the press-fitted portion and for protruding from the base, wherein the terminal portion is configured by a folded plate-like body characterized in that the folded plate like body is such that folded portions overlap a planar portion, at least one of the folded portions has a cut-away portion for extending from the base, at an edge near the press-fitted portion, and is configured for a sealing agent to be injected into the terminal hole via the at least one cut-away portion.
A process for depositing a coating on a continuous fibre (250; 350) of carbon or silicon carbide from a precursor of the coating (240; 340), the process comprising at least: heating a segment (251; 351) of the fibre in the presence of the coating precursor in a microwave field so as to bring the surface of the segment to a temperature allowing the coating to form on the segment from the coating precursor, characterized in that: the segment of fibre is in the presence of a supercritical phase of the precursor of the coating and the coating is formed by supercritical phase chemical deposition.
A method comprising: generating a destination domain current buffer signal in a destination clock domain, the destination domain current buffer signal having a value indicating which one of a first data buffer and a second data buffer in a source clock domain is a current buffer to be utilized during a current data transfer cycle; synchronizing the destination domain current buffer signal in the source clock domain to generate a synchronized destination domain current buffer signal; generating a source domain current buffer signal based on the synchronized destination domain current buffer signal, the generated source domain current buffer signal having a value indicating the current buffer; generating a source data transfer request signal (SDTR) in the source clock domain based on the source domain current buffer signal, the source data transfer request signal (SDTR) being associated with the current buffer indicated by the source domain current buffer signal; synchronizing the source data transfer request signal (SDTR) in the destination clock domain to thereby generate a destination domain data transfer request signal (SDTR-BO-SYNC, SDTR-B1-SYNC); and delaying the transfer of data between a memory in the destination clock domain and the current buffer to a subsequent data transfer cycle when the current buffer associated with the destination domain data transfer request signal (SDTR-BO-SYNC, SDTR-B1-SYNC) does not correspond to the current buffer indicated by the destination domain current buffer signal. generating a destination domain current buffer signal in a destination clock domain, the destination domain current buffer signal having a value indicating which one of a first data buffer and a second data buffer in a source clock domain is a current buffer to be utilized during a current data transfer cycle; synchronizing the destination domain current buffer signal in the source clock domain to generate a synchronized destination domain current buffer signal; generating a source domain current buffer signal based on the synchronized destination domain current buffer signal, the generated source domain current buffer signal having a value indicating the current buffer; generating a source data transfer request signal (SDTR) in the source clock domain based on the source domain current buffer signal, the source data transfer request signal (SDTR) being associated with the current buffer indicated by the source domain current buffer signal; synchronizing the source data transfer request signal (SDTR) in the destination clock domain to thereby generate a destination domain data transfer request signal (SDTR-BO-SYNC, SDTR-B1-SYNC); and delaying the transfer of data between a memory in the destination clock domain and the current buffer to a subsequent data transfer cycle when the current buffer associated with the destination domain data transfer request signal (SDTR-BO-SYNC, SDTR-B1-SYNC) does not correspond to the current buffer indicated by the destination domain current buffer signal.
A dispersion liquid of a conductive polymer characterized in comprising: a conductive polymer obtained by performing an oxidation polymerization of thiophene or its derivatives in water or in an aqueous solution of a mixture of water and a water-miscible solvent in the existence of polystyrene sulfonate and at least one selected from the group consisting of a novolak resin phenol sulfonic acid having a repeating unit represented by the general formula, and a sulfonated polyester; and a high boiling point solvent having a boiling point of 150°C or more: wherein R represents hydrogen or methyl group. a conductive polymer obtained by performing an oxidation polymerization of thiophene or its derivatives in water or in an aqueous solution of a mixture of water and a water-miscible solvent in the existence of polystyrene sulfonate and at least one selected from the group consisting of a novolak resin phenol sulfonic acid having a repeating unit represented by the general formula, and a sulfonated polyester; and a high boiling point solvent having a boiling point of 150°C or more: wherein R represents hydrogen or methyl group.
A communications headset comprising: a first earpiece comprising: a first casing; and a first acoustic driver disposed therein; a first talk-through microphone which is not a noise-canceling type of microphone such that it is able to function to detect far-field as well as near field sounds, the first talk-through microphone being carried by structure of the communications headset and acoustically coupled to an environment external to the communications headset; an audio circuit coupled to the first acoustic driver and the first talk-through microphone, the audio circuit comprising a first talk-through circuit arranged for receiving a signal representing sounds detected by the first talk-through microphone that are within a predetermined range of audio frequencies associated with human speech and providing its output to the first acoustic driver; a communications microphone positioned relative to the first casing of the earpiece towards the vicinity of a mouth of a user of the communications headset when the communications headset is worn by the user, wherein the communications microphone is a noise-canceling type of microphone; and the communications headset being arranged such that a gain of the signal representing sounds detected by the first talk-through microphone is reduced by a component of the first talk-through circuit in response to an instance of speech by a user of the communications headset being detected by the communications microphone. a first earpiece comprising: a first casing; and a first acoustic driver disposed therein; a first casing; and a first acoustic driver disposed therein; a first talk-through microphone which is not a noise-canceling type of microphone such that it is able to function to detect far-field as well as near field sounds, the first talk-through microphone being carried by structure of the communications headset and acoustically coupled to an environment external to the communications headset; an audio circuit coupled to the first acoustic driver and the first talk-through microphone, the audio circuit comprising a first talk-through circuit arranged for receiving a signal representing sounds detected by the first talk-through microphone that are within a predetermined range of audio frequencies associated with human speech and providing its output to the first acoustic driver; a communications microphone positioned relative to the first casing of the earpiece towards the vicinity of a mouth of a user of the communications headset when the communications headset is worn by the user, wherein the communications microphone is a noise-canceling type of microphone; and the communications headset being arranged such that a gain of the signal representing sounds detected by the first talk-through microphone is reduced by a component of the first talk-through circuit in response to an instance of speech by a user of the communications headset being detected by the communications microphone.
Method of treating a substrate using an atmospheric pressure glow discharge plasma, wherein a plurality of electrodes (4,5) are arranged defining a discharge space for forming said plasma, wherein said electrodes (4,5) are connected to a power supply and an AC-voltage is applied, by said power supply, to said electrodes (4,5), and wherein a gaseous substance is provided in said discharge space, wherein said AC-voltage applied to said electrodes (4,5) has an amplitude equal to at least the breakdown voltage of said gaseous substance and has a frequency of at least 100 kHz, wherein said gaseous substance essentially comprises at least one of a group comprising argon, nitrogen and air, and wherein at least one further gas is provided to said gaseous substance in said discharge space, and wherein said substrate is exposed to said plasma, characterized in that, said method comprises a step of controlling said AC-voltage amplitude during the discharge, in order to maintain a glow discharge plasma, to at or above said breakdown voltage for reducing the temperature applied to said substrate for preventing thermal damage to said substrate, wherein said AC-voltage amplitude is less than or equal to 140% of said breakdown voltage, wherein said step of providing said further gas comprises the steps of: providing said further gas to said discharge space after essentially stabilising said plasma such that the concentration of said further gas is fractionally increased stepwise; and stabilizing said plasma by adjusting said AC-voltage amplitude after each stepwise increment of said concentration of said further gas. providing said further gas to said discharge space after essentially stabilising said plasma such that the concentration of said further gas is fractionally increased stepwise; and stabilizing said plasma by adjusting said AC-voltage amplitude after each stepwise increment of said concentration of said further gas.
A child safety seat comprising - a base portion configured to support a child, - a releasable connector configured to be attached to an anchoring point provided in a vehicle in order to secure the child safety seat to the vehicle, and - a flexible attachment means connecting the releasable connector to the base portion, wherein the child safety seat comprises a deformable member (8, 13, 14) which is configured to be deformed upon application of a pulling force exceeding a preset threshold on the releasable connector in a direction facing away from the base portion,wherein the pulling force is at least partially transferred to the deformable member (8, 13, 14) via the flexible attachment means, characterized in that the base portion comprises deflection elements (8a, 8b) around which the flexible attachment means is guided. - a base portion configured to support a child, - a releasable connector configured to be attached to an anchoring point provided in a vehicle in order to secure the child safety seat to the vehicle, and - a flexible attachment means connecting the releasable connector to the base portion,
Displacement device for a separating element, that serves for closing an object, a piece of furniture or a building area, which is provided with a room opening, with a lever mechanism in the embodiment of a parallelogram with levers (221, 222) guided in parallel or in the embodiment of a scissor cross with levers (221, 222), which are connected in an articulated manner and rotatable against one another, and which are connectable or connected on the one hand with a holding profile of the displacement device that is connectable to the separating element and on the other hand with at least one holding device (23, 24) of the displacement device that is connectable to the object, whereby the holding profile is guided at its lower side in a lower guide rail of the displacement device and is guided at its upper side in a upper guide rail of the displacement device, and whereby the guide rails (27, 28) define a displacement axis (y) of the separating elements, whereby the levers (221, 222) comprise at least one displaceable lever part (2212, 2222) that is held displaceably in the holding profile and that, in the event of a displacement of the separating element along the displacement axis (y) is subjected to a displacement, which extends inclined to the displacement axis (y), characterised in that at least one damping device is provided, that is connected non-displaceably to the holding profile inclined to the displacement axis (y) of the separating elements and that can be coupled to the at least one displaceable lever part (2212, 2222) within a contact region and exerts a counterforce thereon.
A thermal management unit for a vehicle powertrain component, said thermal management unit comprising: a temperature controlled multi-port valve having a sensor adapted to sense a temperature of a lubricant used by the powertrain component; a discrete lubricant cooler adapted to input and cool the lubricant, and output the cooled lubricant to a first port of the valve; and a heat exchanger adapted to input the lubricant and heated coolant from an engine via different ports, use the heated coolant to heat the lubricant, and output the heated lubricant to a second port of the valve, said valve having at least a first configuration during a first state whereby heated lubricant is passed to the powertrain component, a second configuration during a second state whereby cooled lubricant is passed to the powertrain component, and a third configuration during a third state whereby a fixed temperature mixture of the cooled and heated lubricants is passed to the powertrain component, and wherein the first state is initiated and maintained when a temperature of the lubricant is below a first predetermined temperature, the second state is initiated and maintained when the temperature of the lubricant is above a second predetermined temperature and the third state is initiated and maintained while the temperature of the lubricant is between the first and second predetermined temperatures. a temperature controlled multi-port valve having a sensor adapted to sense a temperature of a lubricant used by the powertrain component; a discrete lubricant cooler adapted to input and cool the lubricant, and output the cooled lubricant to a first port of the valve; and a heat exchanger adapted to input the lubricant and heated coolant from an engine via different ports, use the heated coolant to heat the lubricant, and output the heated lubricant to a second port of the valve, said valve having at least a first configuration during a first state whereby heated lubricant is passed to the powertrain component, a second configuration during a second state whereby cooled lubricant is passed to the powertrain component, and a third configuration during a third state whereby a fixed temperature mixture of the cooled and heated lubricants is passed to the powertrain component, and wherein the first state is initiated and maintained when a temperature of the lubricant is below a first predetermined temperature, the second state is initiated and maintained when the temperature of the lubricant is above a second predetermined temperature and the third state is initiated and maintained while the temperature of the lubricant is between the first and second predetermined temperatures.