mhurhangee/ep-ind-claims huggingface dataset:
A composition suitable for administration to the central nervous system, comprising a block copolypeptide hydrogel, wherein the block copolypeptide comprises between 100 and 600 amino acids, which comprises a biologically active material that is mixed with the hydrogel and/or that is attached to the polypeptide backbone of the hydrogel, wherein the block copolypeptide comprises at least two distinct polypeptide segments selected from covalently linked hydrophilic moieties and hydrophobic moieties, wherein the amount of copolymer ranges from 0.1 to 5 % weight/volume, and wherein the composition is suitable for administration to the CNS.
A composite mold comprising: - a first mold having a groove which retains a generally linear-shaped workpiece material and which is formed at least partly into a generally linear shape; and - a second mold (8, 78) which has a first guide portion to be relatively movably fitted to the groove, and which has a body portion having a through hole intersecting and communicating with the groove, wherein - with the first guide portion fitted to the groove, the first mold and the second mold (8, 78) are movable relative to each other in a generally linearly extending direction of the groove, - the first guide portion acts so that the workpiece material substantially immovably retained in the groove of the first mold is bent and guided from the groove to the through hole by relative movement of the first mold to the second mold (8, 78), characterized in that: - a third mold has a groove which retains the generally linear-shaped workpiece material and which is formed at least partly into a generally linear shape, wherein - the second mold has a second guide portion to be relatively movably fitted to the groove of the third mold, and - the groove of the third mold communicates with an opening of the through hole on its one side opposite to a first mold side. - a first mold having a groove which retains a generally linear-shaped workpiece material and which is formed at least partly into a generally linear shape; and - a second mold (8, 78) which has a first guide portion to be relatively movably fitted to the groove, and which has a body portion having a through hole intersecting and communicating with the groove, wherein - with the first guide portion fitted to the groove, the first mold and the second mold (8, 78) are movable relative to each other in a generally linearly extending direction of the groove, - the first guide portion acts so that the workpiece material substantially immovably retained in the groove of the first mold is bent and guided from the groove to the through hole by relative movement of the first mold to the second mold (8, 78), - a third mold has a groove which retains the generally linear-shaped workpiece material and which is formed at least partly into a generally linear shape, wherein - the second mold has a second guide portion to be relatively movably fitted to the groove of the third mold, and - the groove of the third mold communicates with an opening of the through hole on its one side opposite to a first mold side.
A method for manufacturing a red phosphor comprising steps of: mixing an element A-containing compound, a nitrogen-free europium compound, a silicon-containing compound, an aluminum-containing compound and a carbon-containing reducing agent so as to form a mixture, the atomic ratio among element A, europium (Eu), silicon (Si), aluminum (Al) and carbon being a value represented by composition formula; firing the mixture; and milling the fired mixture, (A m-x Eu x)Al y (Si 1-z C z) 9 O n N [12+y-2(n-m)/3] composition formula wherein the element A is at least one element selected from the group of magnesium (Mg), calcium (Ca), strontium (Sr) and barium (Ba), and m, x, z and n satisfy the relation: 3 < m < 5, 0 < x < 1,0 ≦ y < 2, 0 < z < 1, and 0 < n < 10, wherein the nitrogen-free europium compound is at least one of europium acetate and europium carbonate, and the mixture is formed by mixing a carbonate compound of the element A, the nitrogen-free europium compound, silicon nitride, aluminum nitride and the carbon-containing reducing agent, wherein the mixture is produced by a wet process, wherein the carbon-containing reducing agent is a melamine, and the addition amount of the melamine is equal to or less than 65% of the total mole number of the carbonate compound of the element A, nitrogen-free europium compound, silicon nitride and aluminum nitride. mixing an element A-containing compound, a nitrogen-free europium compound, a silicon-containing compound, an aluminum-containing compound and a carbon-containing reducing agent so as to form a mixture, the atomic ratio among element A, europium (Eu), silicon (Si), aluminum (Al) and carbon being a value represented by composition formula; firing the mixture; and milling the fired mixture, (A m-x Eu x)Al y (Si 1-z C z) 9 O n N [12+y-2(n-m)/3] composition formula wherein the element A is at least one element selected from the group of magnesium (Mg), calcium (Ca), strontium (Sr) and barium (Ba), and m, x, z and n satisfy the relation: 3 < m < 5, 0 < x < 1,0 ≦ y < 2, 0 < z < 1, and 0 < n < 10, wherein the nitrogen-free europium compound is at least one of europium acetate and europium carbonate, and the mixture is formed by mixing a carbonate compound of the element A, the nitrogen-free europium compound, silicon nitride, aluminum nitride and the carbon-containing reducing agent, wherein the mixture is produced by a wet process, wherein the element A is at least one element selected from the group of magnesium (Mg), calcium (Ca), strontium (Sr) and barium (Ba), and m, x, z and n satisfy the relation: 3 < m < 5, 0 < x < 1,0 ≦ y < 2, 0 < z < 1, and 0 < n < 10, wherein the nitrogen-free europium compound is at least one of europium acetate and europium carbonate, and the mixture is formed by mixing a carbonate compound of the element A, the nitrogen-free europium compound, silicon nitride, aluminum nitride and the carbon-containing reducing agent, wherein the mixture is produced by a wet process,
A method of additively manufacturing a solid propellant element (12, 200), the method comprising: heating a nozzle to produce a heated nozzle; and extruding through the heated nozzle a propellant material that includes a solvent, to form the solid propellant element; wherein the extruding occurs when the heated nozzle is at a temperature above a boiling point of the solvent and below a decomposition temperature of the propellant material; wherein the extruding removes some of the solvent from the propellant material; wherein the solvent is water and/or glycerol; and wherein the extruding through the heated nozzle removes some of the water and/or glycerol from the propellant material. heating a nozzle to produce a heated nozzle; and extruding through the heated nozzle a propellant material that includes a solvent, to form the solid propellant element; wherein the extruding occurs when the heated nozzle is at a temperature above a boiling point of the solvent and below a decomposition temperature of the propellant material; wherein the extruding removes some of the solvent from the propellant material; wherein the solvent is water and/or glycerol; and wherein the extruding through the heated nozzle removes some of the water and/or glycerol from the propellant material.
A method for recovering a precious metal, which comprises bringing an extracting agent or adsorbent in which precious metal ions are extracted or adsorbed, into contact with a back-extracting agent or desorbent containing a sulfur-containing amino acid derivative represented by the following formula: wherein R 1 is a methyl group, an ethyl group, a vinyl group, a C 3-8 linear, branched or cyclic hydrocarbon group, or a C 6-14 aromatic hydrocarbon group, R 2, s are each independently a hydrogen atom, a methyl group, an ethyl group, a vinyl group, a C 3-8 linear, branched or cyclic hydrocarbon group or a C 6-14 aromatic hydrocarbon group, and n is 0 or 1, to obtain a solution containing the precious metal ions, and subjecting the solution to a reduction treatment to obtain a precious metal.
A method performed by a wireless device operating in a wireless communications network, the method comprising: - providing a message to be sent to a network node operating in the wireless communications network, the message being a first scheduled message to be sent to the network node in a random access procedure, the message comprising a first indicator of a type of the message, the type of message having: a) a fixed size Service Data Unit, SDU, and b) a one byte header comprising the first indicator and lacking a second indicator of a length of a payload, and - initiating sending the provided message to the network node. - providing a message to be sent to a network node operating in the wireless communications network, the message being a first scheduled message to be sent to the network node in a random access procedure, the message comprising a first indicator of a type of the message, the type of message having: a) a fixed size Service Data Unit, SDU, and b) a one byte header comprising the first indicator and lacking a second indicator of a length of a payload, and - initiating sending the provided message to the network node.
A portable animal handling system, the system including, a chassis, wherein the chassis includes at least two ground engaging wheels, and wherein the chassis has a fore end and an aft end, an animal handling device in the form of a clamp, wherein the clamp includes a base and two opposing walls, wherein the walls define a passageway and clamping area there between; a fore section, wherein the fore section includes a base having two opposing sides with walls arising therefrom, wherein the walls define a passageway there between; an aft section, wherein the aft section includes a base having two opposing sides with walls arising therefrom, wherein the walls define a passageway there between; wherein the fore section is positioned at the fore end of the chassis, with the clamp separating the fore section from the aft section, and wherein the fore section is pivotally mounted to the chassis and is pivotally moveable relative to the chassis about a horizontal axis such that in use, the fore section may be pivoted from a stored position to an in-use position, characterised in that the aft section is positioned at the aft end of the chassis, wherein the aft section is pivotally mounted to the chassis and is pivotally moveable relative to the chassis about a horizontal axis such that in use, the aft section may be pivoted from a stored position to an in-use position, and wherein at least one of the walls (7, 11) of the fore and aft sections are positioned within the passageway defined by the walls of the clamp when the fore and aft sections are in the stored position.
A blow molding apparatus for supplying a pressurized liquid to a preform of a bottomed-cylinder shape mounted in a mold for blow molding, and for molding this preform into a shape conforming to a cavity of the mold, comprising: a blow nozzle that mates with an open tube portion of the preform; a seal body that opens and closes the blow nozzle; a filling head that extends along an axial direction of the blow nozzle and is provided at one end with a liquid supply channel connected to the blow nozzle and a liquid introduction channel connected to the liquid supply channel from the side; and a pressurized liquid supply unit that is connected to the liquid introduction channel and supplies the pressurized liquid to this liquid introduction channel; characterized in that a spiral guide groove is provided around an axial center of the liquid supply channel in an inner peripheral surface of this liquid supply channel. a blow nozzle that mates with an open tube portion of the preform; a seal body that opens and closes the blow nozzle; a filling head that extends along an axial direction of the blow nozzle and is provided at one end with a liquid supply channel connected to the blow nozzle and a liquid introduction channel connected to the liquid supply channel from the side; and a pressurized liquid supply unit that is connected to the liquid introduction channel and supplies the pressurized liquid to this liquid introduction channel; characterized in that a spiral guide groove is provided around an axial center of the liquid supply channel in an inner peripheral surface of this liquid supply channel.
A method for regulating at least one of the parameters (α) of a method for hot rolling a metal semi-finished product in at least one rolling mill housing comprising at least two work cylinders, the regulating method comprising the following steps: - calculating a forward slippage ratio using the following equation: FWS = | v sortie − v cage | v cage where v sortie is the speed of the semi-finished product upon leaving said housing and v cage is the linear speed of the work cylinders; - calculating an estimate of a friction coefficient (μ réel) based on a measured value of the clamping force of said work cylinders in the housing and the forward slippage ratio previously calculated; and - regulating at least one of the parameters (α) from the calculated estimate of the friction coefficient (μ réel). - calculating a forward slippage ratio using the following equation: FWS = | v sortie − v cage | v cage where v sortie is the speed of the semi-finished product upon leaving said housing and v cage is the linear speed of the work cylinders; - calculating an estimate of a friction coefficient (μ réel) based on a measured value of the clamping force of said work cylinders in the housing and the forward slippage ratio previously calculated; and - regulating at least one of the parameters (α) from the calculated estimate of the friction coefficient (μ réel).
An information processing apparatus (110, S510) comprising: image obtaining means (142, S530, S820) for obtaining a moving image of an eye area; identifying means (142, S530, S830) for identifying at least one region of blood cells in the obtained moving image; and determining means (141, S520) for determining the number of identified regions of blood cells. image obtaining means (142, S530, S820) for obtaining a moving image of an eye area; identifying means (142, S530, S830) for identifying at least one region of blood cells in the obtained moving image; and determining means (141, S520) for determining the number of identified regions of blood cells.
An interface device for interfacing instruments to a simulation system to enable a user to interact with the simulation system to perform a medical procedure on a simulated anatomy of a virtual patient, said interface device comprising: a peripheral in the form of a mock medical instrument capable of selective manipulation by the user; a sensing assembly to measure manipulation of and provide force feedback to said instrument, wherein said sensing assembly includes: motion detection means (52, 56, 62) to measure manipulation of said instrument and provide signals indicating said measured manipulation to said simulation system to simulate said medical procedure; and, force application means to apply force feedback to said instrument in response to control signals from said simulation system; characterized in that: the interface device further comprises: a site mechanism selectively manipulable by the user to simulate manipulation and preparation of an anatomical site for performing said medical procedure, wherein said mechanism includes sensing means to measure manipulation of said mechanism and provide signals indicating said manipulation to said simulation system. a peripheral in the form of a mock medical instrument capable of selective manipulation by the user; a sensing assembly to measure manipulation of and provide force feedback to said instrument, wherein said sensing assembly includes: motion detection means (52, 56, 62) to measure manipulation of said instrument and provide signals indicating said measured manipulation to said simulation system to simulate said medical procedure; and, force application means to apply force feedback to said instrument in response to control signals from said simulation system; motion detection means (52, 56, 62) to measure manipulation of said instrument and provide signals indicating said measured manipulation to said simulation system to simulate said medical procedure; and, force application means to apply force feedback to said instrument in response to control signals from said simulation system; characterized in that: the interface device further comprises: a site mechanism selectively manipulable by the user to simulate manipulation and preparation of an anatomical site for performing said medical procedure, wherein said mechanism includes sensing means to measure manipulation of said mechanism and provide signals indicating said manipulation to said simulation system. the interface device further comprises: a site mechanism selectively manipulable by the user to simulate manipulation and preparation of an anatomical site for performing said medical procedure, wherein said mechanism includes sensing means to measure manipulation of said mechanism and provide signals indicating said manipulation to said simulation system. a site mechanism selectively manipulable by the user to simulate manipulation and preparation of an anatomical site for performing said medical procedure, wherein said mechanism includes sensing means to measure manipulation of said mechanism and provide signals indicating said manipulation to said simulation system.
Robot manipulator system, comprising • a robot manipulator with a kinematic chain of stiff robot manipulator segments (12, 14, 16, 52, 54, 56, 81, 82), which are linked together by hinged joints (18, 20, 58, 60, 84), • a robot controller for controlling the execution of a robot program, • at least one temperature sensor (24, 26, 28, 90, 92, 94, 126) for providing measured temperature values, characterized in that at least two heatable covers (30, 32, 34, 66, 70, 86, 88, 120, 130) are attached onto the surface of at least one manipulator segment (12, 14, 16, 52, 54, 56, 81, 82) representing or at least covering temperature critical areas of the robot for applying heat energy thereon, whereas the belonging amount of heat energy is controlled by a control unit dependent on measured temperature values of the at least one temperature sensor (24, 26, 28, 90, 92, 94, 126), wherein different regulation characteristics are foreseen for the at least two heatable covers (30, 32, 34, 66, 70, 86, 88, 120, 130). • a robot manipulator with a kinematic chain of stiff robot manipulator segments (12, 14, 16, 52, 54, 56, 81, 82), which are linked together by hinged joints (18, 20, 58, 60, 84), • a robot controller for controlling the execution of a robot program, • at least one temperature sensor (24, 26, 28, 90, 92, 94, 126) for providing measured temperature values,
A mounting system for supporting electronic equipment such as in a data center, comprising: a support structure dimensioned for supporting multiple pieces of electronic equipment in a vertically stacked configuration, said support structure having a front opening; a vertically segmented rail assembly, interconnected to said support structure, including a first rail segment subassembly, said first rail segment subassembly having a first mounting flange, extending in a plane transverse to a front-to-back depth axis of said support structure, for mounting a first piece of electronic equipment, and said vertically segmented rail assembly further including a second rail segment subassembly, said second rail segment subassembly having a second mounting flange, extending in a plane transverse to said depth axis of said support structure, for securing a second piece of electronic equipment, said first rail segment subassembly being movable along said depth axis of said support structure in relation to said second rail segment subassembly. a support structure dimensioned for supporting multiple pieces of electronic equipment in a vertically stacked configuration, said support structure having a front opening; a vertically segmented rail assembly, interconnected to said support structure, including a first rail segment subassembly, said first rail segment subassembly having a first mounting flange, extending in a plane transverse to a front-to-back depth axis of said support structure, for mounting a first piece of electronic equipment, and said vertically segmented rail assembly further including a second rail segment subassembly, said second rail segment subassembly having a second mounting flange, extending in a plane transverse to said depth axis of said support structure, for securing a second piece of electronic equipment, said first rail segment subassembly being movable along said depth axis of said support structure in relation to said second rail segment subassembly.
Meander bioreactor for dynamic expansion, differentiation and harvesting of non-adherent growing cells, In particular of mixtures or isolated fractions of hematopoietic cells, stem cells and progenitor cells of human origin, characterized in that the meander bioreactor preferably consists of a rectangular bioreactor vessel there is clear polymer material, which is sterile closed with a lid and on which inlets and outlets (3, 4, 5, 6) are arranged at different heights for the flow of medium and gases, the bottom surface of the bioreactor vessel is 20 to 500 cm 2, preferably 50 to 100 cm 2, and the bottom surface is provided with strip-shaped partition walls which divide the bottom surface and meander through the bioreactor vessel to force gases and medium is, the distance of the partitions from each other and to the sides d end walls of the bioreactor vessel Is 2 to 10 mm, preferably 4 to 5 mm and there is an average laminar upstream flow with a Froude number <0.005, preferably 0,002 and a bottom flow in the flow threads, in the channels formed by the partition walls with a Froude number of 0 or close to 0.
A method of transmission of updated system information in a wireless cellular telecommunications system, in which system there is a plurality of cells (111, 121) which each can accommodate a number of users with mobile terminals, MSs (112, 122), and in which system there is also a plurality of Base Stations, BSs (113, 123), with the traffic to and from the MSs in a first cell being routed via a first BS, and in which system an MS can be handed over from said first BS to a second BS of a second cell in the system, which method comprises: • the second BS informing the first BS that an update has taken place in the system information of the second BS, • the first BS acquiring the updated system information of the second BS, • the first BS transmitting at least part of the updated system information of the second BS to MSs in the cell of the first BS the method being characterized in that: said updated system information is requested by the first BS from the second BS as a result of a message from the second BS that its system information has been updated. • the second BS informing the first BS that an update has taken place in the system information of the second BS, • the first BS acquiring the updated system information of the second BS, • the first BS transmitting at least part of the updated system information of the second BS to MSs in the cell of the first BS said updated system information is requested by the first BS from the second BS as a result of a message from the second BS that its system information has been updated.