mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: tracking a direction of travel (606, 706, 1002) of a user of an augmented reality - AR - display (128, 156, 902); identifying an object (602, 652, 702, 752, 1010, 1012, 1206, 1214) having associated AR information (604, 654, 704, 754); determining whether the object is within an activity zone (1004, 1108, 1208) with a conical shape substantially centered on the direction of travel; selecting a location for display of the AR information, wherein selecting the location comprises: selecting a first location (604, 704) at an offset from the object while the object is within the activity zone; and selecting a second location (654, 754) that at least partially obscures the object while the object is not within the activity zone; and displaying the AR information at the selected location using the AR display. tracking a direction of travel (606, 706, 1002) of a user of an augmented reality - AR - display (128, 156, 902); identifying an object (602, 652, 702, 752, 1010, 1012, 1206, 1214) having associated AR information (604, 654, 704, 754); determining whether the object is within an activity zone (1004, 1108, 1208) with a conical shape substantially centered on the direction of travel; selecting a location for display of the AR information, wherein selecting the location comprises: selecting a first location (604, 704) at an offset from the object while the object is within the activity zone; and selecting a second location (654, 754) that at least partially obscures the object while the object is not within the activity zone; and selecting a first location (604, 704) at an offset from the object while the object is within the activity zone; and selecting a second location (654, 754) that at least partially obscures the object while the object is not within the activity zone; and displaying the AR information at the selected location using the AR display.
A method for tiered storage processing of data, comprising: detecting a data access frequency of a migration unit which is located in a lower-tier disk; determining the data access frequency of the migration unit is greater than a set threshold; migrating the migration unit from the lower-tier disk to a higher-tier disk; splitting the migration unit into multiple migration subunits, after the migration unit is migrated from the lower-tier disk to the higher-tier disk; detecting a data access frequency of each migration subunit, rather than detecting the data access frequency of the migration unit; migrating the migration subunit to the lower-tier disk when detecting that the data access frequency of the migration subunit is lower than the set threshold; and combining the multiple migration subunits into the migration unit when detecting that the multiple migration subunits are all migrated to the lower-tier disk. detecting a data access frequency of a migration unit which is located in a lower-tier disk; determining the data access frequency of the migration unit is greater than a set threshold; migrating the migration unit from the lower-tier disk to a higher-tier disk; splitting the migration unit into multiple migration subunits, after the migration unit is migrated from the lower-tier disk to the higher-tier disk; detecting a data access frequency of each migration subunit, rather than detecting the data access frequency of the migration unit; migrating the migration subunit to the lower-tier disk when detecting that the data access frequency of the migration subunit is lower than the set threshold; and combining the multiple migration subunits into the migration unit when detecting that the multiple migration subunits are all migrated to the lower-tier disk.
Sensor designed to determine at least one process variable of a medium, said sensor comprising at least: - a metal substrate, which has a recess at least in a first area; and - a first dielectric layer, which forms a membrane in the first area, wherein the membrane completely covers the recess, and wherein only the dielectric layer forms the membrane; and - at least a heating structure which is arranged in the first area on the first dielectric layer which is formed as a membrane, wherein the heating structure heats the medium; and - at least a temperature sensor element assigned to the first area, wherein said sensor element is arranged at a distance from the heating structure and outside the first area on the first dielectric layer and measures the temperature of the medium heated at the heating structure; and - at least a protective layer at least covering the at least one heating structure and the at least one temperature sensor element. - a metal substrate, which has a recess at least in a first area; and - a first dielectric layer, which forms a membrane in the first area, wherein the membrane completely covers the recess, and wherein only the dielectric layer forms the membrane; and - at least a heating structure which is arranged in the first area on the first dielectric layer which is formed as a membrane, wherein the heating structure heats the medium; and - at least a temperature sensor element assigned to the first area, wherein said sensor element is arranged at a distance from the heating structure and outside the first area on the first dielectric layer and measures the temperature of the medium heated at the heating structure; and - at least a protective layer at least covering the at least one heating structure and the at least one temperature sensor element.
A method for producing a water absorbent resin comprising: a polymerization step of polymerizing an aqueous solution of acrylic acid (salt) to obtain a water-containing gel-like crosslinked polymer; a drying step of drying the water-containing gel-like crosslinked polymer to obtain a water absorbent resin powder; a classification step of classifying the water absorbent resin powder; and a surface crosslinking step of surface crosslinking the water absorbent resin powder, wherein in the classification step that is carried out before the surface crosslinking step and/or after the surface crosslinking step, a tapping material is installed below the metal sieve mesh used in the classification step, and thereby classification is carried out, the area of the metal sieve mesh is 1 to 10 [m 2 /sheet], and the temperature of the tapping material is 40°C to 100°C and the tapping material is made of a resin. a polymerization step of polymerizing an aqueous solution of acrylic acid (salt) to obtain a water-containing gel-like crosslinked polymer; a drying step of drying the water-containing gel-like crosslinked polymer to obtain a water absorbent resin powder; a classification step of classifying the water absorbent resin powder; and a surface crosslinking step of surface crosslinking the water absorbent resin powder, wherein in the classification step that is carried out before the surface crosslinking step and/or after the surface crosslinking step, a tapping material is installed below the metal sieve mesh used in the classification step, and thereby classification is carried out, the area of the metal sieve mesh is 1 to 10 [m 2 /sheet], and the temperature of the tapping material is 40°C to 100°C and the tapping material is made of a resin.
A method for monitoring an aircraft engine, characterized in that it includes the following steps of: - acquiring a time signal of the exhaust gas temperature residual margin of said aircraft engine, - smoothing said time signal to form a first curve representing said temperature residual margin, - identifying decreasing pieces in said first curve, - constructing a second curve by concatenation of said decreasing pieces, said second curve being continuous while being restricted to said decreasing pieces of said first curve, and - constructing a prediction model from said second curve to determine at least one failure forecast indicator (l1, 12). - acquiring a time signal of the exhaust gas temperature residual margin of said aircraft engine, - smoothing said time signal to form a first curve representing said temperature residual margin, - identifying decreasing pieces in said first curve, - constructing a second curve by concatenation of said decreasing pieces, said second curve being continuous while being restricted to said decreasing pieces of said first curve, and - constructing a prediction model from said second curve to determine at least one failure forecast indicator (l1, 12).
A compound having the structure of Formula: wherein: is X is -O- or -N(R 3)-; R 1 is -(CR 4 R 5) m -R 6; each R 2 is independently selected from halogen, C 1-6 alkyl, and C 1-6 haloalkyl; R 3 is H or C 1-6 alkyl; each R 4 and R 5 is each independently selected from H, F, and C 1-6 alkyl; or R 4 and R 5, together with the carbon to which they are attached, form a C 3-6 cycloalkyl ring; R 6 is -CO 2 R 9; R 9 is H or C 1-6 alkyl; m is 1, 2, 3 or 4; and n is 1; or a pharmaceutically acceptable salt or solvate thereof. X is -O- or -N(R 3)-; R 1 is -(CR 4 R 5) m -R 6; each R 2 is independently selected from halogen, C 1-6 alkyl, and C 1-6 haloalkyl; R 3 is H or C 1-6 alkyl; each R 4 and R 5 is each independently selected from H, F, and C 1-6 alkyl; or R 4 and R 5, together with the carbon to which they are attached, form a C 3-6 cycloalkyl ring; R 6 is -CO 2 R 9; R 9 is H or C 1-6 alkyl; m is 1, 2, 3 or 4; and n is 1; or a pharmaceutically acceptable salt or solvate thereof.
A device for the transfer of flat products, comprising a feed device for feeding successive flat products in a first conveying direction along a feed stretch of the feed device, and an onward conveying device with grippers which are movable in a second conveying direction along a first closed circulating path for the onward conveying of the products which are fed from the feed device to a product transfer zone (2.1, 2.2), wherein the grippers are arranged on a transport chain, and the grippers are designed for gripping the products in the region of a leading product edge, and a circulating device with a plurality of edge abutment elements which are led along a second closed circulating path and which each form an abutment for receiving the products by the grippers in a positionally accurate manner in the insertion direction is assigned to the onward conveying device, wherein the edge abutment elements at least in the product transfer zone (2.1, 2.2) can be led in a cyclically synchronous manner with the grippers, in a manner such that at least one co-running edge abutment element is assigned to each gripper in the product transfer zone (2.1, 2.2), characterised in that control means are provided, by way of which the edge abutment elements which are led along the second circulating path, towards the product transfer zone in the direction of the products to be fed can be brought out of a passive functional position, in which the abutment of the edge abutment element, considered in the insertion direction, lies behind the gripper end-abutment, into an active abutment position, in which the abutment of the edge abutment element, considered in the insertion direction, lies in front of the gripper end-abutment, for exerting its abutment function, and can be moved again into the passive functional position on leaving the product transfer zone.
A catalyzed soot filter, comprising a wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of passages defined by internal walls of the wall flow filter substrate; wherein the plurality of passages comprise inlet passages having an open inlet end and a closed outlet end, and outlet passages having a closed inlet end and an open outlet end; wherein the internal walls of the inlet passages comprise an inlet coating that extends from the inlet end to an inlet coating end, thereby defining an inlet coating length, wherein the inlet coating length is x % of the substrate axial length, with 0 < x ≤ 80; wherein the internal walls of the outlet passages comprise an outlet coating that extends from the outlet end to an outlet coating end, thereby defining an outlet coating length, wherein the outlet coating length is 100-x % of the substrate axial length; wherein the inlet coating length defines an upstream zone of the catalyzed soot filter and the outlet coating length defines a downstream zone of the catalyzed soot filter; wherein the inlet coating comprises an oxidation catalyst comprising platinum (Pt) and optionally palladium (Pd); wherein the outlet coating comprises an oxidation catalyst comprising Pd and optionally Pt, wherein the Pt concentration in the outlet coating is lower than the Pt concentration in the inlet coating and wherein the weight ratio of Pt: Pd in the outlet coating is in the range of from 0:1 to less than 2:1; wherein the inlet coating and the outlet coating are present on the wall flow substrate at a coating loading ratio in the range of from 0.5 to 1.5, calculated as ratio of the loading of the inlet coating (in g/L (g/in 3)): loading of the outlet coating (in g/L (g/in 3)).
An elevator governor rotor comprising: a central axis; and a plurality of pairs of lobes, each pair of lobes comprising: an inner lobe and an outer lobe; characterized by further comprising: axial projections (130, 131, 228) projecting axially from at least one of the inner lobes and the outer lobes. a central axis; and a plurality of pairs of lobes, each pair of lobes comprising: an inner lobe and an outer lobe; characterized by further comprising: axial projections (130, 131, 228) projecting axially from at least one of the inner lobes and the outer lobes. an inner lobe and an outer lobe; characterized by further comprising: axial projections (130, 131, 228) projecting axially from at least one of the inner lobes and the outer lobes. axial projections (130, 131, 228) projecting axially from at least one of the inner lobes and the outer lobes.
A process to obtain a juice of fresh plants, characterized in that said fresh plants, with the exclusion of the sole seeds, are subjected to thermomechanical treatment whereby fresh plants are extruded in a twin-screw extruder comprising a first co-rotating, co-penetrating twin-screw zone in which trituration of said plants takes place, associated with heat treatment allowing inactivation of endogenous enzymes and preserving of the molecules of compounds of interest in their native form, without use of solvent, followed by a juice recovery operation.
A non-transitory machine-readable medium including instructions executable by a processing resource of a network device to: receive a first message on a communication band from a first wireless client device (106-N); determine a capability complying with a particular wireless specification of the first wireless client device (106-N) based on information in the first message; based on the determined capability of the first wireless client device (106-N), split communication channels on the communication band into a first communication channel group comprising a plurality of communication channels that operate on the communication band in accordance with the particular wireless specification and a second communication channel group comprising a plurality of communication channels that operate on the communication band in accordance with other wireless specifications than the particular wireless specification; and operate the first communication channel group in accordance with the particular wireless specification and the second communication channel group in accordance with the other wireless specifications. receive a first message on a communication band from a first wireless client device (106-N); determine a capability complying with a particular wireless specification of the first wireless client device (106-N) based on information in the first message; based on the determined capability of the first wireless client device (106-N), split communication channels on the communication band into a first communication channel group comprising a plurality of communication channels that operate on the communication band in accordance with the particular wireless specification and a second communication channel group comprising a plurality of communication channels that operate on the communication band in accordance with other wireless specifications than the particular wireless specification; and operate the first communication channel group in accordance with the particular wireless specification and the second communication channel group in accordance with the other wireless specifications.
An apparatus for performing spectroscopy comprising: an elongated substrate (102, 402) having a shape and size to be inserted into a specimen, wherein the elongated substrate (102, 402) has a first end and a second end, wherein the elongated substrate (102, 402) comprises an acupuncture needle; a plurality of nano-fingers extending from an exterior surface of the elongated substrate (102, 402) at a location between the first end and the second end of the elongated substrate (102, 402); and a plurality of surface-enhanced spectroscopy elements positioned on tips of the plurality of nano-fingers; the apparatus further comprising a cover layer covering the plurality of SES elements; wherein the cover layer includes a lipid bilayer comprising proteins to selectively transport molecules through the lipid bilayer. an elongated substrate (102, 402) having a shape and size to be inserted into a specimen, wherein the elongated substrate (102, 402) has a first end and a second end, wherein the elongated substrate (102, 402) comprises an acupuncture needle; a plurality of nano-fingers extending from an exterior surface of the elongated substrate (102, 402) at a location between the first end and the second end of the elongated substrate (102, 402); and a plurality of surface-enhanced spectroscopy elements positioned on tips of the plurality of nano-fingers; the apparatus further comprising a cover layer covering the plurality of SES elements; wherein the cover layer includes a lipid bilayer comprising proteins to selectively transport molecules through the lipid bilayer.
An aqueous biocide composition which is solids-free at room temperature, which composition comprises water having in solution therein an active bromine content derived from (i) bromine chloride or bromine chloride and bromine, with or without conjoint use of chlorine, in the range of 201,000 ppm to 215,000 ppm (wt/wt), and (ii) overbased alkali metal salt of sulfamic acid, wherein the relative proportions of (i) and (ii) are such that the atom ratio of nitrogen to active bromine from (i) and (ii) is greater than 0.93, and wherein the pH of the composition is at least 7.
A method of registering a user for a voice service, which method is implemented by an interface server, the method being characterized in that it comprises the following steps: - obtaining, by means of an electronic voice processing device comprising at least one component for capturing audio samples, at least one voice sample from said user; - obtaining, from said at least one voice sample from said user, at least one item of information validating said user's consent to the conditions of access to said voice service, - obtaining, from said at least one voice sample from said user, at least one piece of personal data associated with said user, - calculation, on the basis of said at least one voice sample from said user, of a reference voiceprint associated with said user, said steps delivering a registration of said user to said voice service implemented solely vocally from a combination of said at least one consent validation information and said at least one personal data associated with said user obtained from said at least one voice sample of said user. - obtaining, by means of an electronic voice processing device comprising at least one component for capturing audio samples, at least one voice sample from said user; - obtaining, from said at least one voice sample from said user, at least one item of information validating said user's consent to the conditions of access to said voice service, - obtaining, from said at least one voice sample from said user, at least one piece of personal data associated with said user, - calculation, on the basis of said at least one voice sample from said user, of a reference voiceprint associated with said user,
Electronic power circuit comprising at least one electronic chip (MT, MD), a laminated substrate (LA1, LA2, SB) formed from insulating and conductive layers and heat dissipation means, said electronic chip being located in said substrate and said heat dissipation means being attached to first and second opposite faces of said substrate, said heat dissipation means comprising first and second busbars forming heat sinks (BBH, BBL) and mounted respectively on said first and second opposite faces of said substrate, characterised in that said first and second busbars (BBH, BBL) are each formed from a plurality of metal busbar sections (BB1H, BB2H, BB3H, BB4H; BB1L, BB2L, BB3L) attached to predetermined positions (MCH, PE, MCL) that are spaced apart and interconnected to one another and to a contact face of said electronic chip (MT, MD) by a metal layer (MEH, MEL).
An adhesive composition comprising: an active ingredient dispersed in a non-reactive acrylate pressure sensitive adhesive, wherein the active ingredient is selected from tetrabenazine, deuterated tetrabenazine, or a combination thereof, wherein the non-reactive acrylate pressure sensitive adhesive is in an amount of 50% to 97% by weight, wherein the non-reactive acrylate pressure sensitive adhesive is a copolymer of 2-ethyl hexyl acrylate, methyl acrylate, and one or more acrylamide monomers, preferably tert octyl acrylamide, with no functional groups selected from epoxy, -OH, -COOH, and combinations thereof, and wherein the non-reactive acrylate pressure sensitive adhesive is free or substantially free of vinyl acetate. an active ingredient dispersed in a non-reactive acrylate pressure sensitive adhesive, wherein the active ingredient is selected from tetrabenazine, deuterated tetrabenazine, or a combination thereof, wherein the non-reactive acrylate pressure sensitive adhesive is in an amount of 50% to 97% by weight, wherein the non-reactive acrylate pressure sensitive adhesive is a copolymer of 2-ethyl hexyl acrylate, methyl acrylate, and one or more acrylamide monomers, preferably tert octyl acrylamide, with no functional groups selected from epoxy, -OH, -COOH, and combinations thereof, and wherein the non-reactive acrylate pressure sensitive adhesive is free or substantially free of vinyl acetate.
A Colony Stimulating Factor as an active ingredient for use in the treatment of colon or pancreatic cancer through an increase in neutrophilia, wherein the Colony Stimulating Factor is selected from the group consisting of Granulocyte Macrophage Colony Stimulating Factor (GM-CSF) and Granulocyte Colony Stimulating Factor (G-CSF); and wherein the CSF is an isolated soluble CSF protein administered as the sole active ingredient.