mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of a bouillon tablet comprising salt, fiber and starch, the process comprising the steps of: a) dissolving the salt or part of the salt in water; b) mixing a combination of the starch and the fiber with the water before, during or after dissolution of the salt or part of the salt in water; c) drying the mixture of step b) to obtain a dry salt-starch-fiber mass; d) optionally milling the dry salt-starch-fiber mass; e) mixing the dry salt-starch-fiber mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-starch-fiber mass, preferably between 20 to 75wt% of the salt-starch-fiber mass; and wherein the salt-starch-fiber mass comprises 18 to 82wt% salt and 18 to 82wt% of a combination of starch and fiber, preferably 20 to 80wt% salt and 20 to 80wt% of a combination of starch and fiber and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20. a) dissolving the salt or part of the salt in water; b) mixing a combination of the starch and the fiber with the water before, during or after dissolution of the salt or part of the salt in water; c) drying the mixture of step b) to obtain a dry salt-starch-fiber mass; d) optionally milling the dry salt-starch-fiber mass; e) mixing the dry salt-starch-fiber mass with at least one further ingredient selected from the group consisting of salt, sugar, MSG, flavourings, colourants, fillers, oil, fat, or any combination thereof, to result in a dry composition; f) pressing the dry composition to a bouillon tablet; wherein the bouillon tablet comprises at least 10wt% salt-starch-fiber mass, preferably between 20 to 75wt% of the salt-starch-fiber mass; and wherein the salt-starch-fiber mass comprises 18 to 82wt% salt and 18 to 82wt% of a combination of starch and fiber, preferably 20 to 80wt% salt and 20 to 80wt% of a combination of starch and fiber and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20. wherein the bouillon tablet comprises at least 10wt% salt-starch-fiber mass, preferably between 20 to 75wt% of the salt-starch-fiber mass; and wherein the salt-starch-fiber mass comprises 18 to 82wt% salt and 18 to 82wt% of a combination of starch and fiber, preferably 20 to 80wt% salt and 20 to 80wt% of a combination of starch and fiber and wherein the salt is dissolved in the water at a ratio between 1:2.8 to 1:20.
An alloy member, comprising: a base body that contains a magnesium alloy; a first protective layer that contains an oxide derived from a component of the base body or a complex of an oxide and a hydroxide derived from a component of the base body; and a second protective layer that contains a hydroxide derived from a component of the base body; wherein the magnesium alloy is realized by adding a mixture to magnesium; the mixture contains at least one of rare earth elements and at least one of non-rare earth elements; the oxide of the first protective layer includes at least any one of an oxide of magnesium, an oxide of said rare earths, and an oxide of said non-rare earths; the complex of an oxide and a hydroxide of the first protective layer includes an oxide of magnesium and a hydroxide of magnesium; and the hydroxide of the second protective layer includes a hydroxide of at least any one of magnesium, said rare earths, and said non-rare earths, wherein the first protective layer is on a surface of the base body, and the second protective layer is on a surface of the first protective layer. a base body that contains a magnesium alloy; a first protective layer that contains an oxide derived from a component of the base body or a complex of an oxide and a hydroxide derived from a component of the base body; and a second protective layer that contains a hydroxide derived from a component of the base body; wherein the magnesium alloy is realized by adding a mixture to magnesium; the mixture contains at least one of rare earth elements and at least one of non-rare earth elements; the oxide of the first protective layer includes at least any one of an oxide of magnesium, an oxide of said rare earths, and an oxide of said non-rare earths; the complex of an oxide and a hydroxide of the first protective layer includes an oxide of magnesium and a hydroxide of magnesium; and the hydroxide of the second protective layer includes a hydroxide of at least any one of magnesium, said rare earths, and said non-rare earths, wherein the first protective layer is on a surface of the base body, and the second protective layer is on a surface of the first protective layer.
A vehicle lighting unit comprising: a heat sink; a light emitting element disposed in the heat sink; and a reflector that is disposed above the light emitting element, and which reflects light emitted forward from the light emitting element, toward a projection lens wherein the heat sink includes: a base portion for disposing the light emitting element on a pedestal portion on an upper surface of the heat sink; and a fin portion that is disposed on a back surface of the base portion, and which radiates heat generated by the light emitting element, wherein the back surface of the base portion is inclined with respect to the pedestal portion; characterized in that the heat sink further includes heat transfer ribs that are disposed on a same surface side as a surface on which the light emitting element is disposed, underneath the reflector, along a direction from a center of the light emitting element to the outside, to transfer heat generated by the light emitting element. a heat sink; a light emitting element disposed in the heat sink; and a reflector that is disposed above the light emitting element, and which reflects light emitted forward from the light emitting element, toward a projection lens wherein the heat sink includes: a base portion for disposing the light emitting element on a pedestal portion on an upper surface of the heat sink; and a fin portion that is disposed on a back surface of the base portion, and which radiates heat generated by the light emitting element, wherein the back surface of the base portion is inclined with respect to the pedestal portion; characterized in that the heat sink further includes heat transfer ribs that are disposed on a same surface side as a surface on which the light emitting element is disposed, underneath the reflector, along a direction from a center of the light emitting element to the outside, to transfer heat generated by the light emitting element. a base portion for disposing the light emitting element on a pedestal portion on an upper surface of the heat sink; and a fin portion that is disposed on a back surface of the base portion, and which radiates heat generated by the light emitting element, wherein the back surface of the base portion is inclined with respect to the pedestal portion; characterized in that the heat sink further includes heat transfer ribs that are disposed on a same surface side as a surface on which the light emitting element is disposed, underneath the reflector, along a direction from a center of the light emitting element to the outside, to transfer heat generated by the light emitting element.
Agglomerated zeolitic adsorbent comprising at least one faujasite FAU-X zeolite of Si/Al atomic ratio between 1.00 and 1.50 limits included and comprising barium and optionally potassium, characterized first in that the particle porosity of said absorbent is between 25% and 45%, preferably between 30% and 45%, more preferably between 32% and 45%, further preferably between 35% and 45%, and particularly advantageously between 36% and 45%, limits included, and secondly in that the standard deviation σ of crystal size distribution in said agglomerate is less than 0.30 μm, preferably between 0.05 μm and 0.30 μm, more preferably between 0.05 μm and 0.28 μm, further preferably between 0.1 μm and 0.28 μm, most preferably between 0.1 μm and 0.25 μm, limits included? said adsorbent comprises zeolite crystals of number-weighted mean diameter between 100 nm and 1200 nm, limits included, the weight fraction of FAU zeolite being higher than or equal to 80% relative to the total weight of the adsorbent, wherein the porosity and the standard deviation of crystal size distribution are measured as described in the specification. the weight fraction of FAU zeolite being higher than or equal to 80% relative to the total weight of the adsorbent, wherein the porosity and the standard deviation of crystal size distribution are measured as described in the specification.
Chaff chopper for a combine harvester, with a housing, which has an inlet and an outlet, a rotor, which is arranged in the housing and has chopper blades suspended in a swinging manner, adjustably arranged counter-blades which are movable into the envelope circle of the chopper blades, and with an adjustably arranged rub bar which is movable between an active operating position, in which it interacts with the chopper blades downstream of the counter-blades in order to chop up the straw, and an inactive inoperative position, characterized in that the adjustment of the rub bar is coupled to the adjustment of the counter-blades.
A method, comprising the following steps: (a) receiving a radio signal over a wireless channel by a wireless station in a wireless local area network, wherein the radio signal carries a data packet; (b) trying to resolve a basic service set,BSS, color of the data packet to determine whether the data packet has an intra-basic service set, intra-BSS, packet type or an inter-basic service set,inter-BSS, packet type; (c) detecting whether the radio signal has a WiFi radio signal type or a non-WiFi radio signal type if the BSS color cannot be resolved; and (d) - performing a first channel contention scheme to gain access to the wireless channel if the BSS color of the received packet was resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the packet type, and - performing a second channel contention scheme to gain access to the wireless channel if the BSS color cannot be resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the detected radio signal type. (a) receiving a radio signal over a wireless channel by a wireless station in a wireless local area network, wherein the radio signal carries a data packet; (b) trying to resolve a basic service set,BSS, color of the data packet to determine whether the data packet has an intra-basic service set, intra-BSS, packet type or an inter-basic service set,inter-BSS, packet type; (c) detecting whether the radio signal has a WiFi radio signal type or a non-WiFi radio signal type if the BSS color cannot be resolved; and (d) - performing a first channel contention scheme to gain access to the wireless channel if the BSS color of the received packet was resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the packet type, and - performing a second channel contention scheme to gain access to the wireless channel if the BSS color cannot be resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the detected radio signal type. - performing a first channel contention scheme to gain access to the wireless channel if the BSS color of the received packet was resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the packet type, and - performing a second channel contention scheme to gain access to the wireless channel if the BSS color cannot be resolved, wherein the channel contention scheme applies a clear channel assessment level, CCA level, that is determined based on the detected radio signal type.
A system comprising: a robotic surface cleaning device configured to autonomously travel about a surrounding environment while collecting dirt and debris; a hand-held surface cleaning device comprising: a handle; a nozzle; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a controller configured to: translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations. a robotic surface cleaning device configured to autonomously travel about a surrounding environment while collecting dirt and debris; a hand-held surface cleaning device comprising: a handle; a nozzle; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a handle; a nozzle; a power supply; a suction motor fluidly coupled to the nozzle; an antenna arrangement to communicate with the robotic surface cleaning device; and at least a first sensor to capture a plurality of location data points, each location data point corresponding to a physical location in the surrounding environment; and a controller configured to: translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations. translate the captured location data points into a plurality of localized coordinates, each localized coordinate of the plurality of localized coordinates corresponding to locations in a map that virtually represents the surrounding environment; identify at least one region of interest in the map based on the translated localized coordinates; and send a command to cause the robotic surface cleaning device to remain substantially within areas of the surrounding environment corresponding to the at least one identified region of interest during cleaning operations.
Epoxy resin composition comprising an epoxy resin, a monool and/or a polyol and a carboxamide compound which comprises a carboxamide group having the structure -CO-NH 2 wherein the number of hydroxy equivalents per epoxy equivalent is 0.02-100 and preferably 0.03-50 and most preferably 0.05-10 and the number of carboxamide equivalents per epoxy equivalent is 0.0005-1 and preferably 0.005-0.7 and most preferably of 0.01-0.5.
A polymer complex containing microcellulose fibers comprising nanofibrils and fine particles; and a polymer matrix, wherein the nanofibrils are bonded to a surface of the microcellulose fibers, and the fine particles are bonded to the nanofibrils or bonded to a surface or inside of the microcellulose fibers; wherein the microcellulose fibers have a minor axis diameter of 1 μ m to 10 μ m, and the nanofibrils have a minor axis diameter of 50 nm to 100 nm; and wherein the fine particles comprise spherical fine particles having a diameter of 0.01 μ m to 10 μ m, columnar particles having a diameter of 0.01 μ m to 10 μ m on one axis and a diameter of 0.02 μ m to 30 μ m on another axis, or a mixture thereof, the diameter of the fine particles is measured using scanning electron microscopy. wherein the nanofibrils are bonded to a surface of the microcellulose fibers, and the fine particles are bonded to the nanofibrils or bonded to a surface or inside of the microcellulose fibers; wherein the microcellulose fibers have a minor axis diameter of 1 μ m to 10 μ m, and the nanofibrils have a minor axis diameter of 50 nm to 100 nm; and wherein the fine particles comprise spherical fine particles having a diameter of 0.01 μ m to 10 μ m, columnar particles having a diameter of 0.01 μ m to 10 μ m on one axis and a diameter of 0.02 μ m to 30 μ m on another axis, or a mixture thereof, the diameter of the fine particles is measured using scanning electron microscopy.
A method for customizing, in a telecommunications system, a prepaid service in which prepaid subscribers of prepaid subscriptions prepay for their calls by recharging their accounts, the method being characterized by obtaining, in response to the prepaid subscriber recharging the prepaid subscriber's account, the subscriber's current credit and a prepaid profile indicated in the prepaid subscriber's subscriber information maintained in the system, the indicated prepaid profile being one of at least two different prepaid profiles defined for the prepaid service, each prepaid profile defining at least one attribute indicating how a value relating to the attribute is to be updated during recharge, one of the at least one attribute being a deposit function defining how to calculate a new credit during recharge, or an expiry function defining how to calculate a new credit expiry time; calculating, in response to the attribute being the deposit function, the prepaid subscriber's new credit using in the deposit function a value for the deposit function in the obtained prepaid profile, and calculating, in response to the attribute being an expiry function, a new credit expiry time using in the expiry function a value for the expiry function in the obtained prepaid profile.
Apparatus for the training and/or analysis of the musculoskeletal system of a user, the apparatus having at least one base element (4; 4a, 4b), which can be put into periodic movements for generating an excitation function acting upon the user, said base element driven in said way moving one or both of the feet (F1, F2) resting on it in its or in their entirety periodically up and down, said apparatus having a fixing device (20; 120) with at least one foot holder, by which one foot or both feet (F1, F2) of the user can be fixed in position on the base element, characterized in that the foot holder of the fixing device (20; 120) is configured such that the user can change his position during the periodic up and down movement of the base element of the apparatus so that a projection of the center of gravity of his body is outside of the support area of the one foot or of both feet (F1, F2).
Pad for a bicycle disc brake, the pad comprising a support frame having a first portion for fastening the pad to a caliper of the bicycle disc brake and a second portion, wherein an element made of friction-wearing material is associated with said support frame at said second portion, wherein the pad comprises a vibration damping element associated with said support frame, wherein said element made of friction-wearing material is associated with a first face of said support frame and said vibration damping element is associated with a second face of said support frame opposite to said first face; said vibration damping element comprises a first end portion projecting with respect to said support frame, wherein said first end portion comprises a part folded over said first face; characterised in that, when the pad is mounted on the caliper of the bicycle disc brake and the caliper is mounted on the frame of the bicycle, said first end portion is provided at a lower portion of said vibration damping element and said second portion is arranged below the first portion.
Photographic device for reconstructing 3-dimensionnal surfaces from a stereophotogrammetry image pair of a subject, comprising: a. Computation means configured to reconstruct surfaces by searching for corresponding points between the two images of the stereo pair, and b. A unique camera body equipped with: i. A non-polarized double-optics system (OA, OB) and ii. A unique light source whose light is reflected by a set of primary mirrors opposite to the light source and reflecting the light toward a set of secondary mirrors opposite to the primary mirrors and reflecting themselves the light toward the subject, hence creating two virtual light sources (2A, 2B) having the same spreading than the double-optics and aligned with this double-optics such that one of the two virtual light sources is aligned with a first optics and a second of the light sources is aligned with a second optics relative to subject, the computation means being configured to select amongst four possible pairing solutions for reconstructing a specular spot the geometrical position the closest to the camera body for a convex surface and the farthest for a concave surface, with the four solutions being: the paring of the reflection of the first virtual light source as seen by the optics and, the paring of the reflection of the second virtual light source as seen by optics and, the pairing of on one side the reflection of the first virtual light source as seen by the second optics and on the other side the reflection of the second virtual light source as seen by the first optics, the pairing of on one side the reflection of the first virtual light source as seen by the first optics and on the other side the reflection of the second virtual light source as seen by the second optics. a. Computation means configured to reconstruct surfaces by searching for corresponding points between the two images of the stereo pair, and b. A unique camera body equipped with: i. A non-polarized double-optics system (OA, OB) and ii. A unique light source whose light is reflected by a set of primary mirrors opposite to the light source and reflecting the light toward a set of secondary mirrors opposite to the primary mirrors and reflecting themselves the light toward the subject, hence creating two virtual light sources (2A, 2B) having the same spreading than the double-optics and aligned with this double-optics such that one of the two virtual light sources is aligned with a first optics and a second of the light sources is aligned with a second optics relative to subject, i. A non-polarized double-optics system (OA, OB) and ii. A unique light source whose light is reflected by a set of primary mirrors opposite to the light source and reflecting the light toward a set of secondary mirrors opposite to the primary mirrors and reflecting themselves the light toward the subject, hence creating two virtual light sources (2A, 2B) having the same spreading than the double-optics and aligned with this double-optics such that one of the two virtual light sources is aligned with a first optics and a second of the light sources is aligned with a second optics relative to subject,