mhurhangee/ep-ind-claims huggingface dataset:
A vacuum cleaner, comprising: a motor configured to rotate a collecting fan; a battery configured to generate a second DC voltage; and a voltage converter configured to convert an AC voltage received from a power source into a first DC voltage; characterized in that the vacuum cleaner further comprises: a motor driver configured to selectively drop the first DC voltage or the second DC voltage to a selectively dropped voltage based on whether the AC voltage is received, the motor driver being further configured to drive the motor with the selectively dropped voltage. a motor configured to rotate a collecting fan; a battery configured to generate a second DC voltage; and a voltage converter configured to convert an AC voltage received from a power source into a first DC voltage; characterized in that the vacuum cleaner further comprises: a motor driver configured to selectively drop the first DC voltage or the second DC voltage to a selectively dropped voltage based on whether the AC voltage is received, the motor driver being further configured to drive the motor with the selectively dropped voltage. a motor driver configured to selectively drop the first DC voltage or the second DC voltage to a selectively dropped voltage based on whether the AC voltage is received, the motor driver being further configured to drive the motor with the selectively dropped voltage.
A dispersion comprising particles of zinc oxide in a dispersing medium wherein the zinc oxide particles in dispersion have (i) a median volume particle diameter in the range from 70 to 130 nm, (ii) less than 16% by volume of particles having a volume diameter of less than 35 nm below the median volume particle diameter, and (iii) more than 84% by volume of particles having a volume diameter of less than 57 nm above the median volume particle diameter, wherein the zinc oxide particles have an extinction coefficient at 360 nm (E 360) in the range from 13.5 to 17 l/g/cm, and wherein the dispersion comprises at least 30% by weight of the total weight of the dispersion of zinc oxide particles.
A link for a gas turbine assembly and for mounting a first component to a second component, comprising: a first piece connectable to the first component; a second piece connectable to the second component, the second piece including a main body portion receivable in an opening in the first piece, wherein the main body portion of the second piece is in an interference fit relationship with the opening in the first piece; a primary fastener configured to retain the main body portion of the second piece in the opening; a secondary fastener (500a, 500b) configured to retain the main body portion of the second piece in the opening, the secondary fastener (500a, 500b) capable of withstanding higher loads than the primary fastener, wherein the secondary fastener (500a, 500b) includes a first stop pin assembly and a second stop pin assembly, and the first and second stop pin assemblies are snugly receivable in first and second stop pin openings in the main body portion of the second piece and loosely receivable in first and second stop pin openings in the first piece; and characterized in that the secondary fastener (500a, 500b) is arranged orthogonal to the primary fastener. a first piece connectable to the first component; a second piece connectable to the second component, the second piece including a main body portion receivable in an opening in the first piece, wherein the main body portion of the second piece is in an interference fit relationship with the opening in the first piece; a primary fastener configured to retain the main body portion of the second piece in the opening; a secondary fastener (500a, 500b) configured to retain the main body portion of the second piece in the opening, the secondary fastener (500a, 500b) capable of withstanding higher loads than the primary fastener, wherein the secondary fastener (500a, 500b) includes a first stop pin assembly and a second stop pin assembly, and the first and second stop pin assemblies are snugly receivable in first and second stop pin openings in the main body portion of the second piece and loosely receivable in first and second stop pin openings in the first piece; and characterized in that the secondary fastener (500a, 500b) is arranged orthogonal to the primary fastener.
A process for preparing the amorphous form of cabazitaxel, which comprises: a. preparing a solution of cabazitaxel in a suitable solvent, wherein the solution is obtained by dissolving cabazitaxel in a suitable solvent; and b. recovering the amorphous forms of cabazitaxel from the solution thereof by removal of the solvent, wherein the solvent is dichloromethane and wherein the amorphous form is recovered from the solution using a spray drying technique. a. preparing a solution of cabazitaxel in a suitable solvent, wherein the solution is obtained by dissolving cabazitaxel in a suitable solvent; and b. recovering the amorphous forms of cabazitaxel from the solution thereof by removal of the solvent,
A scaffold protein comprising an active polypeptide, the scaffold protein comprising: a) a polypeptide consisting of the 1 st to the 19 th amino acid residues of an amino acid sequence represented by SEQ ID NO: 1; b) a polypeptide including an amino acid sequence of activator protein 1 (AP-1) represented by SEQ ID NO:3; and c) a polypeptide consisting of the 29 th to the 86 th amino acid residues of the amino acid sequence represented by SEQ ID NO: 1, wherein said polypeptides are sequentially linked thereto. a) a polypeptide consisting of the 1 st to the 19 th amino acid residues of an amino acid sequence represented by SEQ ID NO: 1; b) a polypeptide including an amino acid sequence of activator protein 1 (AP-1) represented by SEQ ID NO:3; and c) a polypeptide consisting of the 29 th to the 86 th amino acid residues of the amino acid sequence represented by SEQ ID NO: 1, wherein said polypeptides are sequentially linked thereto.
An orthopaedic drill bit for drilling into a surface of a material, the orthopaedic drill bit comprising: a shaft and an elongate tip; and at least one helical flute extending at least partway along the shaft for directing away debris produced whilst drilling; characterized in that the tip includes at least three faces and terminates in an extreme point, each face having a leading edge and a trailing edge (922"), wherein each face has a chamfer that slopes away from the leading edge and into its respective face; wherein a portion of the chamfer extends partway into the adjacent trailing edge (922"), thereby defining an extreme point by the merging of each of the chamfered faces which is unitary and pyramidal in shape, the extreme point being adapted to pierce the surface and thereby locate the tip prior to drilling. a shaft and an elongate tip; and at least one helical flute extending at least partway along the shaft for directing away debris produced whilst drilling; characterized in that the tip includes at least three faces and terminates in an extreme point, each face having a leading edge and a trailing edge (922"), wherein each face has a chamfer that slopes away from the leading edge and into its respective face; wherein a portion of the chamfer extends partway into the adjacent trailing edge (922"), thereby defining an extreme point by the merging of each of the chamfered faces which is unitary and pyramidal in shape, the extreme point being adapted to pierce the surface and thereby locate the tip prior to drilling.
A preparation method of a fat-soluble nutrient microcapsule, comprising the following components in percentage by weight: a fat-soluble nutrient 0.2-51.6%; an antioxidant 0.2-5.0%; a wall material 41.4-97.6%; and water 2.0-5.0%; wherein the ratio of the fat-soluble nutrient that keeps active in the fat-soluble nutrient microcapsule to the fat-soluble nutrient that is initially added is 0.990-0.997: 1; the method comprising the steps of emulsifying or dispersing a molten fat-soluble nutrient oil phase or pre-dispersion containing a fat-soluble core material and an aqueous phase containing a water-soluble wall material by mixing or passing respectively into a multistage series cavitation emulsifier under a high pressure of 100-500 MPa to obtain an emulsion solution or a dispersion solution, and getting a fat-soluble nutrient microcapsule by spray granulation and drying of the obtained emulsion solution or dispersion solution. wherein the ratio of the fat-soluble nutrient that keeps active in the fat-soluble nutrient microcapsule to the fat-soluble nutrient that is initially added is 0.990-0.997: 1; the method comprising the steps of emulsifying or dispersing a molten fat-soluble nutrient oil phase or pre-dispersion containing a fat-soluble core material and an aqueous phase containing a water-soluble wall material by mixing or passing respectively into a multistage series cavitation emulsifier under a high pressure of 100-500 MPa to obtain an emulsion solution or a dispersion solution, and getting a fat-soluble nutrient microcapsule by spray granulation and drying of the obtained emulsion solution or dispersion solution.
A variable flow resistance system for use in a subterranean well, the system comprising: a flow chamber through which a fluid composition flows in the well, the chamber having an inlet, an outlet, and at least one structure which influences a portion of the fluid composition which flows circuitously between the inlet and the outlet to maintain such circuitous flow, wherein the structure has at least one opening which permits the fluid composition to flow more directly from the inlet to the outlet.
A method, comprising: at a user equipment device, UE, comprising wireless communication circuitry having radio frequency, RF, circuitry and baseband circuitry: providing power to a crystal oscillator to exit a first sleep state; providing one or more clocking signals to the RF circuitry based on output from the crystal oscillator; performing calibration and state restoration of the RF circuitry independent of the baseband circuitry; initiating and performing a plurality of algorithms to prepare for receiving data from a wireless communication network, wherein the initiating and performing is performed by the RF circuitry independent of the baseband circuitry; after initiating the plurality of algorithms, performing state restoration of the baseband circuitry; receiving the data from a wireless communication network using the RF circuitry; processing the data using the baseband circuitry; performing state retention for the RF circuitry and the baseband circuitry; and powering down the crystal oscillator to enter a second sleep state, wherein the plurality of algorithms comprise frequency tracking loop, FTL, time tracking loop, TTL, and channel estimation, CHEST, algorithms. providing power to a crystal oscillator to exit a first sleep state; providing one or more clocking signals to the RF circuitry based on output from the crystal oscillator; performing calibration and state restoration of the RF circuitry independent of the baseband circuitry; initiating and performing a plurality of algorithms to prepare for receiving data from a wireless communication network, wherein the initiating and performing is performed by the RF circuitry independent of the baseband circuitry; after initiating the plurality of algorithms, performing state restoration of the baseband circuitry; receiving the data from a wireless communication network using the RF circuitry; processing the data using the baseband circuitry; performing state retention for the RF circuitry and the baseband circuitry; and powering down the crystal oscillator to enter a second sleep state, wherein the plurality of algorithms comprise frequency tracking loop, FTL, time tracking loop, TTL, and channel estimation, CHEST, algorithms.
A method (2800, 2900) for wireless communications, comprising: identifying a plurality of resource units for communication with a transmitting station, STA; receiving data from the transmitting STA in at least a first resource unit of the plurality of resource units; characterized in that the method comprises communicating with the transmitting STA in at least a second resource unit of the plurality of resource units, wherein the communicating comprises receiving or transmitting information that is different from the received data of the first resource unit, and wherein at least a portion of data is received simultaneously with receiving or transmitting a portion of the information communicated with the transmitting STA. identifying a plurality of resource units for communication with a transmitting station, STA; receiving data from the transmitting STA in at least a first resource unit of the plurality of resource units; characterized in that the method comprises communicating with the transmitting STA in at least a second resource unit of the plurality of resource units, wherein the communicating comprises receiving or transmitting information that is different from the received data of the first resource unit, and wherein at least a portion of data is received simultaneously with receiving or transmitting a portion of the information communicated with the transmitting STA.
An immediate release pharmaceutical composition on a total of 100% by weight comprises: a) from 2 % to 60 % 1-[(2-bromophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole or a pharmaceutically acceptable salt thereof; b) from 36 % to 97 % diluent or total of two diluents; wherein the diluent is selected from the group consisting of microcrystalline cellulose, lactose monohydrate, dibasic calcium phosphate, lactose, lactose hydrate, lactose anhydrate, mannitol, starch and isomalt; c) from 0.5 % to 2 % lubricant; wherein the lubricant is magnesium stearate; d) from 0.5 % to 1 % glidant; wherein the glidant is colloidal silicon dioxide; e) 0 % to 10 % binder; wherein the binder is selected from group consisting of povidone or hydroxypropyl methylcellulose; f) 0 % to 5 % disintegrant; wherein the disintegrant is selected from crospovidone, sodium starch glycolate and croscarmellose sodium; and g) 0 % to 2 % acidifying agent; wherein the acidifying agent is citric acid. a) from 2 % to 60 % 1-[(2-bromophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole or a pharmaceutically acceptable salt thereof; b) from 36 % to 97 % diluent or total of two diluents; wherein the diluent is selected from the group consisting of microcrystalline cellulose, lactose monohydrate, dibasic calcium phosphate, lactose, lactose hydrate, lactose anhydrate, mannitol, starch and isomalt; c) from 0.5 % to 2 % lubricant; wherein the lubricant is magnesium stearate; d) from 0.5 % to 1 % glidant; wherein the glidant is colloidal silicon dioxide; e) 0 % to 10 % binder; wherein the binder is selected from group consisting of povidone or hydroxypropyl methylcellulose; f) 0 % to 5 % disintegrant; wherein the disintegrant is selected from crospovidone, sodium starch glycolate and croscarmellose sodium; and g) 0 % to 2 % acidifying agent; wherein the acidifying agent is citric acid.
An air data probe comprising a pitot tube having a tap with a forward end, and defining an inner flow path, the inner flow path decreasing in cross-sectional area until reaching a throat, and having cross-sections which are generally circular; characterised in that: the inner flow path comprises a plurality of slots, with said generally circular sections circumferentially spaced between said slots.
A battery comprising at least one cell, said at least one cell including: a first substrate layer comprised of a plurality of laminated layers forming a laminated structure including at least a structural layer, a barrier layer comprising a polyester based barrier film having an oxide or metalized coating on the inside of the laminated structure and a sealing layer; a second substrate layer comprised of a plurality of laminated layers including at least a structural layer, a barrier layer comprising a polyester based barrier film having an oxide or metalized coating and a sealing layer; a printed cathode collector layer comprising an ink provided on at least one of said first substrate layer and said second substrate layer; a printed cathode layer comprising an ink provided on said cathode collector layer; a printed anode layer comprising an ink provided on at least one of said first substrate layer and said second substrate layer or provided on a printed anode collector layer provided on at least one of said first substrate layer and said second substrate layer; an electrolyte layer including a liquid electrolyte in contact with said printed anode layer and said printed cathode layer; and a frame around a perimeter of said cell for connecting said first substrate layer to said second substrate layer to form an inner space for containing said liquid electrolyte within said inner space along with at least a portion of said printed anode layer and at least a portion of said printed cathode layer, wherein said inner space is sealed off from an exterior of said cell. a first substrate layer comprised of a plurality of laminated layers forming a laminated structure including at least a structural layer, a barrier layer comprising a polyester based barrier film having an oxide or metalized coating on the inside of the laminated structure and a sealing layer; a second substrate layer comprised of a plurality of laminated layers including at least a structural layer, a barrier layer comprising a polyester based barrier film having an oxide or metalized coating and a sealing layer; a printed cathode collector layer comprising an ink provided on at least one of said first substrate layer and said second substrate layer; a printed cathode layer comprising an ink provided on said cathode collector layer; a printed anode layer comprising an ink provided on at least one of said first substrate layer and said second substrate layer or provided on a printed anode collector layer provided on at least one of said first substrate layer and said second substrate layer; an electrolyte layer including a liquid electrolyte in contact with said printed anode layer and said printed cathode layer; and a frame around a perimeter of said cell for connecting said first substrate layer to said second substrate layer to form an inner space for containing said liquid electrolyte within said inner space along with at least a portion of said printed anode layer and at least a portion of said printed cathode layer, wherein
A method for guiding a robot that is equipped with a camera to facilitate three-dimensional reconstruction through sampling based planning, comprising: searching for an object of interest in an environment comprising a plurality of objects; recognizing the object of interest in a two dimensional image captured via the camera; localizing the object of interest in the 2D image computing a plurality of 3D depth maps for the localized object based on the pixel depth in each image of the object of interest, a pixel depth being determined based on images of the object of interest from at least two different camera positions; constructing a 3D object map from the depth maps; growing a sampling based structure around the 3D object map; assigning a cost to each edge of the sampling based structure in dependence on the depth variance of pixels visible along a given edge for planning movement of the camera along a trajectory of positions from which to observe the object; searching the sampling based structure to determine a lowest cost sequence of edges for moving the robot along the trajectory of edges; and guiding the robot through the environment based on the lowest cost sequence of edges. searching for an object of interest in an environment comprising a plurality of objects; recognizing the object of interest in a two dimensional image captured via the camera; localizing the object of interest in the 2D image computing a plurality of 3D depth maps for the localized object based on the pixel depth in each image of the object of interest, a pixel depth being determined based on images of the object of interest from at least two different camera positions; constructing a 3D object map from the depth maps; growing a sampling based structure around the 3D object map; assigning a cost to each edge of the sampling based structure in dependence on the depth variance of pixels visible along a given edge for planning movement of the camera along a trajectory of positions from which to observe the object; searching the sampling based structure to determine a lowest cost sequence of edges for moving the robot along the trajectory of edges; and guiding the robot through the environment based on the lowest cost sequence of edges.
A booklet making machine comprising: a stapling arrangement adapted for stapling a stack of sheets following a paper path, a contacting device adapted to contact the stack of sheets, a drive means (20, 24) adapted to impart a reciprocating movement of the contacting device, characterized in that the contacting device is a pin, which is adapted to contact the stack of sheets and which is pivotably attached to the drive means (20, 24), and wherein a sensor is adapted to determine the distance of the movement of the contacting device in the form of the pin a stapling arrangement adapted for stapling a stack of sheets following a paper path, a contacting device adapted to contact the stack of sheets, a drive means (20, 24) adapted to impart a reciprocating movement of the contacting device, characterized in that the contacting device is a pin, which is adapted to contact the stack of sheets and which is pivotably attached to the drive means (20, 24), and wherein a sensor is adapted to determine the distance of the movement of the contacting device in the form of the pin
A method for producing a viscose solution comprising a step of adding alkyl polyglycoside prior to and/or during xanthation of alkali cellulose, wherein the alkyl polyglycoside is represented by the formula: R-O-(G 1) x -H in which - R is a branched alkyl having from 5 to 18 carbons, more preferably from 8 to 13 carbon atoms, for example 2-ethylhexyl, 2-propylheptyl, 2-butyloctyl, isononyl, isotrideyl, or 5-methyl-2-isopropyl-hexyl; - G 1 is a radical resulting from removing a H 2 O molecule of a monosaccharide referred to as "reducing sugar", typically a hexose of formula C 6 H 12 O 6 or a pentose of formula C 5 H 10 O 5; and - x represents an average value and is a number within the range of from 1.1 to 4, preferably from 1.1 to 2, particularly preferably 1.15 to 1.9, more particularly preferably 1.2 to 1.5. - R is a branched alkyl having from 5 to 18 carbons, more preferably from 8 to 13 carbon atoms, for example 2-ethylhexyl, 2-propylheptyl, 2-butyloctyl, isononyl, isotrideyl, or 5-methyl-2-isopropyl-hexyl; - G 1 is a radical resulting from removing a H 2 O molecule of a monosaccharide referred to as "reducing sugar", typically a hexose of formula C 6 H 12 O 6 or a pentose of formula C 5 H 10 O 5; and - x represents an average value and is a number within the range of from 1.1 to 4, preferably from 1.1 to 2, particularly preferably 1.15 to 1.9, more particularly preferably 1.2 to 1.5.