mhurhangee/ep-ind-claims huggingface dataset:
A nanolipogel comprising a polymeric matrix core formed from one or more polymers or copolymers and a lipid shell; wherein the polymeric matrix core has at least one host molecule dispersed therein or covalently bound thereto, which host molecule is reversibly associated with a first active agent; and wherein the nanolipogel includes at least one additional active agent which is encapsulated within, dispersed within or associated with the surface of the nanolipogel; for controlled release of said first active agent and said at least one additional active agent from the nanolipogel. a polymeric matrix core formed from one or more polymers or copolymers and a lipid shell; wherein the polymeric matrix core has at least one host molecule dispersed therein or covalently bound thereto, which host molecule is reversibly associated with a first active agent; and wherein the nanolipogel includes at least one additional active agent which is encapsulated within, dispersed within or associated with the surface of the nanolipogel; for controlled release of said first active agent and said at least one additional active agent from the nanolipogel.
A feed system (1, 100) for feeding lubricating oil to members of a turbine engine including a reduction gearbox, the feed system (1, 100) comprising: - a nonpositive-displacement pump device for having its inlet connected to an oil tank and driven in rotation at a speed that is not correlated with an operating speed of the turbine engine, and comprising a nonpositive-displacement pump or at least two nonpositive-displacement pumps connected in a series fluid-flow connection; - a separator node connected to the outlet of the nonpositive-displacement pump device; - a first delivery branch for lubricating at least the RGB, which branch is connected to said nonpositive-displacement pump device via the separator node; - a second delivery branch for lubricating other members, which branch is connected to said nonpositive-displacement pump device via the separator node and includes a positive-displacement pump; and - at least one fluid metering device having a metering slot and fed by the nonpositive-displacement pump device via the separator node for the purpose of feeding the RGB. - a nonpositive-displacement pump device for having its inlet connected to an oil tank and driven in rotation at a speed that is not correlated with an operating speed of the turbine engine, and comprising a nonpositive-displacement pump or at least two nonpositive-displacement pumps connected in a series fluid-flow connection; - a separator node connected to the outlet of the nonpositive-displacement pump device; - a first delivery branch for lubricating at least the RGB, which branch is connected to said nonpositive-displacement pump device via the separator node; - a second delivery branch for lubricating other members, which branch is connected to said nonpositive-displacement pump device via the separator node and includes a positive-displacement pump; and - at least one fluid metering device having a metering slot and fed by the nonpositive-displacement pump device via the separator node for the purpose of feeding the RGB.
A method of operating a system for navigating within a track network, with a system central for administering network data which represent a model of the track network, with a track maintenance machine comprising a navigation device for processing navigation data derived from the network data, with communication means for data exchange between the system central and the navigation device and with a carrier platform (1, 21, 22, 23, 24) with sensors for collecting raw data which represent characteristic information of the track network, wherein the raw data are transmitted to the system central, wherein in the system central a big data framework is installed, wherein object data are generated from the raw data by means of identification algorithms and wherein the network data are synchronized with the object data in order to update the network data, characterized in that probability values or probability functions are assigned to the object data in each case in dependence on the sensors used and/or the carrier platform (1, 21, 22, 23, 24) used and/or the identification algorithms used.
A heating unit comprised of at least two tubular heaters (1, 2) arranged inside an oven, said oven comprising a ceiling and a back, characterized in that the interior of the oven is formed in a manner that each of both upper side corners is provided with a chamfer, the at least two heaters (1,2) each have a cross-section (7,8) in a transversal plane parallel to the back of the oven, said at least two tubular heaters (1,2) are vertically spaced apart relatively to each other, and are attached to the back of the oven by means of a common flange, wherein each cross-section (7, 8) of each of the at least two tubular heaters (1, 2) lies at the same distance ( x) from said chamfer.
Quantity control valve having an axially movable valve needle and a valve element that can be acted upon by the valve.needle in an opening direction, wherein the valve element delimits a pot-shaped damping chamber, wherein a gap is formed between a wall of the damping chamber and the valve element, connecting the damping chamber to a flow duct, characterized in that the gap has at least one recess and in that the valve element is plate-shaped.
A method for retrofitting a pulverized coal boiler in an air combustion boiler system having a plurality of burners (7a, 7b, 7c) over a plurality of stages along the vertical direction on a wall surface of a furnace of the pulverized coal boiler and an after-air port for introducing air for two-stage combustion located above the burners (7a, 7b, 7c) into a two-stage combustion pulverized coal boiler in an oxyfuel combustion boiler system, wherein an air separation unit for separating oxygen from air and a CO2 recovery device for absorbing and separating CO2 gas from combustion exhaust gas generated in the boiler furnace is installed, characterised in that the method for retrofitting the combustion pulverized coal boiler is comprising the steps of: stopping to supply fuel into the furnace from a burner located in a middle stage among the plurality of stages of burners (7a, 7b, 7c) installed on the wall surface of the furnace of the pulverized coal boiler; installing a new burner to an opening (6a, 6b) of the after-air port provided on the wall surface of the furnace of the pulverized coal boiler; and installing a supply line to introduce the oxygen manufactured by the air separation unit and part of the recirculation gas, which is part of the exhaust gas exhausted from the pulverized coal boiler, circulated into the pulverized coal boiler, to at least the plurality of stages of burners (7a, 7b, 7c) except for the stopped burner and to the new burner installed to the opening of the after-air port through the supply line, and supplying the oxygen and the recirculation gas from the plurality of stages of burners (7a, 7c) and the new burner into the furnace. stopping to supply fuel into the furnace from a burner located in a middle stage among the plurality of stages of burners (7a, 7b, 7c) installed on the wall surface of the furnace of the pulverized coal boiler; installing a new burner to an opening (6a, 6b) of the after-air port provided on the wall surface of the furnace of the pulverized coal boiler; and installing a supply line to introduce the oxygen manufactured by the air separation unit and part of the recirculation gas, which is part of the exhaust gas exhausted from the pulverized coal boiler, circulated into the pulverized coal boiler, to at least the plurality of stages of burners (7a, 7b, 7c) except for the stopped burner and to the new burner installed to the opening of the after-air port through the supply line, and supplying the oxygen and the recirculation gas from the plurality of stages of burners (7a, 7c) and the new burner into the furnace.
Device for providing a multiplicity of nanowires on a surface of a substrate, comprising at least: - a housing, wherein the housing comprises a first slide-in unit and a second slide-in unit, - a substrate module with a receptacle for the substrate, wherein the substrate module can be slid by means of the first slide-in unit into the housing, - a galvanic module with a receptacle for a means for providing an electrolyte, wherein the galvanic module can be slid by means of the second slide-in unit into the housing. - a housing, wherein the housing comprises a first slide-in unit and a second slide-in unit, - a substrate module with a receptacle for the substrate, wherein the substrate module can be slid by means of the first slide-in unit into the housing, - a galvanic module with a receptacle for a means for providing an electrolyte, wherein the galvanic module can be slid by means of the second slide-in unit into the housing.
A balancing valve, provided with a body having two connector pipes (3,4), where a seat is housed, said seat being closed with a head mounted on a stem, said stem being seated in a gland outside of which a knob connected to the stem is positioned, the head being made of plastics, characterized in that the head is connected to an adjustment ring made of plastics, the head is constituted by an inner sleeve closed at the side of closing seat of the valve, provided with an external ring extending in proximity of the closed side of the inner sleeve, where the head and the adjustment ring are connected by a threaded connection, and between the head and the adjustment ring a head seal is placed.
A controller for a motor configured to rotate a roll of material, the controller comprising: a drive speed regulator configured to generate an initial torque command based on a difference between a speed setpoint and a measured drive speed of the motor; characterized by an observer module configured to estimate a density error of the roll of material, wherein the initial torque command is adjusted based on the density error to obtain a total torque command; and a torque regulator configured to control the motor based on the total torque command. a drive speed regulator configured to generate an initial torque command based on a difference between a speed setpoint and a measured drive speed of the motor; characterized by an observer module configured to estimate a density error of the roll of material, wherein the initial torque command is adjusted based on the density error to obtain a total torque command; and a torque regulator configured to control the motor based on the total torque command.
A shell type needle roller bearing wherein a plurality of needle rollers are arranged along the inner-diameter surface of a shell type outer ring formed by pressing, characterized in that the surface roughness of the inner-diameter surface of said outer ring is finer than the surface roughness of its outer-diameter surface.
A method for surface preparation prior to adhesive bonding comprising: (a) providing a composite substrate comprising reinforcing fibers impregnated with a first curable matrix resin; (b) applying a surface treatment layer onto a surface of the composite substrate, said surface treatment layer comprising a second curable matrix resin different from the first matrix resin; (c) co-curing the composite substrate and the surface treatment layer until the composite substrate is fully cured but the surface treatment layer remains partially cured, wherein the second matrix resin is formulated to cure at a slower rate than the first matrix resin, and after co-curing (c), the surface treatment layer provides a bondable surface with chemically-active functional groups, the first and second matrix resins comprise different curing agents that are selected to affect curing at different rates, the first and second matrix resins comprise one or more epoxy resins, the curing agents for the first and second matrix resins are selected from the group consisting of: melamine and substituted melamine derivatives, polymercaptan, polyamide, aliphatic polyamine, aromatic polyamine derivatives, tertiary amine boron trifluoride complex, acid anhydride, imidazoles, aromatic polyamine, cyanoguanadine, phenol novolac, and the curing agent for the first matrix resin is selected to enable the first matrix resin to cure at a faster rate relative to that of the second matrix resin. (a) providing a composite substrate comprising reinforcing fibers impregnated with a first curable matrix resin; (b) applying a surface treatment layer onto a surface of the composite substrate, said surface treatment layer comprising a second curable matrix resin different from the first matrix resin; (c) co-curing the composite substrate and the surface treatment layer until the composite substrate is fully cured but the surface treatment layer remains partially cured,
A calibrator comprising a first plate opposed to a second plate, the first plate having a first foam-expansion surface adjacent to a first anti-static surface, wherein the first foam-expansion surface comprises a thin, unfilled polytetrafluoroethylene, and wherein the first anti-static surface comprises a carbon-filled polytetrafluoroethylene.
A component comprising: a unit cell structure having decoupled structural stiffness and mass density properties, the unit cell structure comprising a plurality of unit cells joined together, each unit cell of said plurality of unit cells having a mass density identical to the mass density of every other unit cell of said plurality of unit cells, wherein the plurality of unit cells are configured such that a stiffness of the component is varied throughout a section of the component while the mass density of component is consistent through the section, said plurality of unit cells comprising: a first portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said first portion of unit cells having a first value; and a second portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said second portion of unit cells having a second value different from the first value, wherein the average stiffness of the second portion differs from the average stiffness of the first portion. a unit cell structure having decoupled structural stiffness and mass density properties, the unit cell structure comprising a plurality of unit cells joined together, each unit cell of said plurality of unit cells having a mass density identical to the mass density of every other unit cell of said plurality of unit cells, wherein the plurality of unit cells are configured such that a stiffness of the component is varied throughout a section of the component while the mass density of component is consistent through the section, said plurality of unit cells comprising: a first portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said first portion of unit cells having a first value; and a second portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said second portion of unit cells having a second value different from the first value, wherein the average stiffness of the second portion differs from the average stiffness of the first portion. a first portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said first portion of unit cells having a first value; and a second portion of unit cells having a characteristic dimension and an average stiffness, the characteristic dimension of said second portion of unit cells having a second value different from the first value, wherein the average stiffness of the second portion differs from the average stiffness of the first portion.
A battery case for a lithium secondary battery made of a laminate sheet including an outer layer /barrier layer /inner layer structure, the battery case comprising: a first region that is a region configured to allow gas to be discharged or be expanded; and a second region that is a remaining region excluding the first region, wherein the laminate sheet constituting the first region does not contain the barrier layer, and characterized in that the outer layer of the laminate sheet in the first region is one or more selected from the group consisting of low density polyethylene (LDPE), high density polyethylene (HDPE), polypropylene, biaxially oriented polypropylene (BOPP), and cyclic olefin copolymer. a first region that is a region configured to allow gas to be discharged or be expanded; and a second region that is a remaining region excluding the first region, wherein the laminate sheet constituting the first region does not contain the barrier layer, and characterized in that the outer layer of the laminate sheet in the first region is one or more selected from the group consisting of low density polyethylene (LDPE), high density polyethylene (HDPE), polypropylene, biaxially oriented polypropylene (BOPP), and cyclic olefin copolymer.
Medical product (100, 200, 300), preferably for use in the treatment, more particularly in the filling up and/or closure, of a bone cavity, having structural elements connected to one another, wherein the structural elements are dividable at least into two groups of structural elements, namely at least into a first group of structural elements (110, 210a, 210b, 310a, 310b) and into a second group of structural elements (120, 220, 320), wherein the structural elements (110, 210a, 210b, 310a, 310b) of the first group have a lower hardness than the structural elements (120, 220, 320) of the second group, characterized in that structural elements (110, 210a, 210b, 310a, 310b) of the first group that are connected to one another form a number of intended bending regions of the product (100, 200, 300).
A formulation for topical application comprising, in percentages by weight of the total weight of the formulation, 0.5%-10% of N-acetylcysteine and 2-30% of urea and a dermatologically acceptable vehicle, for use in the treatment and/or prevention of a condition selected from the group consisting of dermatological disorders of the Sudeck syndrome, chemotherapy-induced palmar-plantar erythrodysesthesia, dermatological disorders caused by radiotherapy and diabetic foot syndrome.
Light-diffusing bulb (1; 11) for a semiconductor retrofit lamp (R1; R2; R3), which bulb (1; 11) has a hollow cylindrical shape, wherein - the bulb (1; 11) comprises a base body made of glass, - the base body is coated with a light-scattering layer, and - the light-scattering layer comprises scattering particles (P1, P2) distributed in a light-transmissive base material, - the base material is an inorganic lead-free base material, and - the scattered particles (PI, P2) are inorganic scattered particles, characterized in that the light-transmissive base material consists of nanoporous aluminum oxide and/or aluminum phosphate. - the bulb (1; 11) comprises a base body made of glass, - the base body is coated with a light-scattering layer, and - the light-scattering layer comprises scattering particles (P1, P2) distributed in a light-transmissive base material, - the base material is an inorganic lead-free base material, and - the scattered particles (PI, P2) are inorganic scattered particles,
A waterproof and vapor-permeable shoe, comprising an upper (11, 111, 211) that is lined at least partially by an upper membrane (12, 112, 212) which is impermeable to water in the liquid state and permeable to water vapor, said upper membrane (12, 112, 212) being connected hermetically to a sole (13, 113, 213) which is impermeable to water in the liquid state, whereby said hermetic connection is provided by means of a sealing element (14, 114, 214), said sealing element (14, 114, 214) being permeable with respect to sealing material, such as glue, sealing adhesive or polymeric material for providing the sole, said sealing element (14, 114, 214) impregnated with said sealing material gripping said upper membrane (12, 112, 212) and being connected to said sole (13, 113, 213) or forming a single body therewith, sealing said sole (13, 113, 213) to said upper membrane (12, 112, 212), characterized in that said sealing element (14, 114, 214) is comprised in an assembly insole (15, 115, 215).
A method of receiving system information, by a user equipment, UE, in wireless communication, the method comprising: detecting a first Synchronization Signal Block, SSB, including a Synchronization Signal, SS, and a Physical Broadcasting Channel, PBCH, carrying Minimum System Information, characterized by determining absence of any Remaining Minimum System Information, RMSI, associated with the first SSB based on a bit field included in the Minimum System Information; and based on absence of any RMSI associated with the first SSB, determining that there is no SSB associated with any RMSI within a frequency range, based on a value of RMSI scheduling information included in the Minimum System Information, wherein the value of the RMSI scheduling information relates to the frequency range. detecting a first Synchronization Signal Block, SSB, including a Synchronization Signal, SS, and a Physical Broadcasting Channel, PBCH, carrying Minimum System Information, characterized by determining absence of any Remaining Minimum System Information, RMSI, associated with the first SSB based on a bit field included in the Minimum System Information; and based on absence of any RMSI associated with the first SSB, determining that there is no SSB associated with any RMSI within a frequency range, based on a value of RMSI scheduling information included in the Minimum System Information, wherein the value of the RMSI scheduling information relates to the frequency range.
Drive assembly, wherein the drive assembly comprises a gearing (22, 72), an electric motor and a motor rocker arm, wherein the gearing (22, 72) is driven by the motor directly or by way of a clutch, wherein the motor rocker arm comprises a first and a second rocker arm part, wherein the gearing (22, 72) is fastened to the first rocker arm part, wherein the motor and the clutch are fastened to the second rocker arm part, characterised in that pairs of plate parts are arranged between the first and the second rocker arm part, wherein the first plate part of each pair is connected to the first rocker arm part, the second plate part of each pair is connected to the second rocker arm part, and the respective top surfaces of each first plate part of each pair facing the respective second plate part of each pair are located in a shared plane. wherein the drive assembly comprises a gearing (22, 72), an electric motor and a motor rocker arm, wherein the gearing (22, 72) is driven by the motor directly or by way of a clutch, wherein the motor rocker arm comprises a first and a second rocker arm part, wherein the gearing (22, 72) is fastened to the first rocker arm part, wherein the motor and the clutch are fastened to the second rocker arm part, characterised in that pairs of plate parts are arranged between the first and the second rocker arm part, wherein the first plate part of each pair is connected to the first rocker arm part, the second plate part of each pair is connected to the second rocker arm part, and the respective top surfaces of each first plate part of each pair facing the respective second plate part of each pair are located in a shared plane.