mhurhangee/ep-ind-claims huggingface dataset:
Clamping shaft for a rotationally driven part, comprising a shaft body being rotatable about a shaft axis, at least one fluid chamber (28, 28a, 28b) being located inside the shaft body and being filled with a predetermined amount of fluid, wherein the fluid chamber (28, 28a, 28b) is delimited by a piston surface of at least one piston (30, 30a, 30b) being located inside the shaft body and a cylinder part (32, 32a, 32b), being movable relative to each other such that a volume of the fluid chamber (28, 28a, 28b) is adjustable by moving the piston (30, 30a, 30b) relative to the cylinder part (32, 32a, 32b), wherein the shaft body comprises at least one elastic clamping region (24, 24a, 24b) delimiting the fluid chamber (28, 28a, 28b), wherein the clamping region (24, 24a, 24b) has a first diameter if the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are in a first relative position, and a second diameter if the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are in a second relative position, the second diameter being bigger than the first diameter, characterized in that the clamping shaft further comprises at least one preloading unit, wherein the preloading unit applies a preloading force on the piston (30, 30a, 30b) and/or the cylinder part (32, 32a, 32b) such that the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are biased towards the second relative position. a shaft body being rotatable about a shaft axis, at least one fluid chamber (28, 28a, 28b) being located inside the shaft body and being filled with a predetermined amount of fluid, wherein the fluid chamber (28, 28a, 28b) is delimited by a piston surface of at least one piston (30, 30a, 30b) being located inside the shaft body and a cylinder part (32, 32a, 32b), being movable relative to each other such that a volume of the fluid chamber (28, 28a, 28b) is adjustable by moving the piston (30, 30a, 30b) relative to the cylinder part (32, 32a, 32b), wherein the shaft body comprises at least one elastic clamping region (24, 24a, 24b) delimiting the fluid chamber (28, 28a, 28b), wherein the clamping region (24, 24a, 24b) has a first diameter if the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are in a first relative position, and a second diameter if the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are in a second relative position, the second diameter being bigger than the first diameter, characterized in that the clamping shaft further comprises at least one preloading unit, wherein the preloading unit applies a preloading force on the piston (30, 30a, 30b) and/or the cylinder part (32, 32a, 32b) such that the piston (30, 30a, 30b) and the cylinder part (32, 32a, 32b) are biased towards the second relative position.
A molecule which comprises a first amino acid sequence which has at least 80% identity to SEQ ID NO: 1 and a second amino acid sequence which is heterologous to said first sequence, wherein said molecule does not comprise a leucine-rich repeat module from a lamprey VLR-B antibody.
A method, comprising: receiving a basis variable set (210, 410, 610), wherein basis variables are sensor measurements or determined from sensor measurements, and wherein the basis variable set (210, 410, 610) includes an engine speed, a commanded fueling value, and an in-cylinder oxygen concentration value; determining a reference value set (226, 430, 620) having a plurality of reference values based on the basis variable set (210, 410, 610) and a fuel controller specification set, wherein the fuel controller specification set defines acceptable types and range of inputs for a fuel controller, such that the reference value set (226, 430, 620) is a set of target values for meeting a performance requirement of an engine system and includes a start-of-injection command; and providing the reference value set (226, 430, 620) to a fuel control commander. receiving a basis variable set (210, 410, 610), wherein basis variables are sensor measurements or determined from sensor measurements, and wherein the basis variable set (210, 410, 610) includes an engine speed, a commanded fueling value, and an in-cylinder oxygen concentration value; determining a reference value set (226, 430, 620) having a plurality of reference values based on the basis variable set (210, 410, 610) and a fuel controller specification set, wherein the fuel controller specification set defines acceptable types and range of inputs for a fuel controller, such that the reference value set (226, 430, 620) is a set of target values for meeting a performance requirement of an engine system and includes a start-of-injection command; and providing the reference value set (226, 430, 620) to a fuel control commander.
Bicycle mudguard comprising a rod and a fastening device (8, 9) in order to fasten the rod to a bicycle component, wherein the fastening device comprises, - a clamping device comprising a body in which a clamping passage is provided, wherein the rod extends through the clamping passage along a clamping surface which is formed by a wall surface that delimits the clamping passage, and at least one clamping element, which is movable and/or deformable transversely to the longitudinal axis of the rod in order to be brought from a non-clamping position into a clamping position, wherein the clamping element brought into the clamping position pushes the rod against the clamping surface, so that the rod is detained in a fixed position in the clamping device, and - an elongated fastening means in order to fasten the clamping device to a bicycle component, wherein the clamping device and the fastening means are provided to realize the fastening by moving the fastening means according to the longitudinal direction of the rod with respect to the clamping device, and wherein the clamping device comprises transmission means in order to transmit to the clamping element the motion of the fastening means in such a way during this movement that this clamping element is moved and/or deformed transversely to the longitudinal direction until it reaches the clamping position, characterized in that in the clamping element is provided a first clamping passage, and the clamping passage in the body is a second clamping passage, in that the clamping element and the body are provided such that the first and the second clamping passage lie in alignment, in that the rod extends through the first and the second clamping passage, in that the body comprises at least one guide surface, in that the clamping element comprises at least one contact surface, which, during the movement of the fastening means, is moved over a guide surface of the body, so that the clamping element is moved according to the transverse direction until it has reached the clamping position. - a clamping device comprising a body in which a clamping passage is provided, wherein the rod extends through the clamping passage along a clamping surface which is formed by a wall surface that delimits the clamping passage, and at least one clamping element, which is movable and/or deformable transversely to the longitudinal axis of the rod in order to be brought from a non-clamping position into a clamping position, wherein the clamping element brought into the clamping position pushes the rod against the clamping surface, so that the rod is detained in a fixed position in the clamping device, and - an elongated fastening means in order to fasten the clamping device to a bicycle component,
Method for detecting and quantifying LRP8 and its C-terminal fragments in a human biological sample, comprising the step of putting into contact of said sample isolated from the human body with a monoclonal and/or polyclonal antibody designed against at least a specific amino acid sequence of a C-terminal region of LRP8, said antibody comprising the CDR1 amino acid sequences of the heavy chain according to SEQ. ID. 21, SEQ ID 29, SEQ ID 53 or SEQ ID 61, the CDR2 amino acid sequences of the heavy chain according to SEQ ID 23, SEQ ID 31, SEQ ID 55 or SEQ ID 63, the CDR3 amino acid sequences of the heavy chain according to SEQ ID 25, SEQ ID 33, SEQ ID 57 or SEQ ID 65, the CDR1 amino acid sequences of the light chain according to SEQ ID 37, SEQ ID 45, SEQ ID 69 or SEQ ID 77, the CDR2 amino acid sequences of the light chain according to SEQ ID 39, SEQ ID 47, SEQ ID 71 or SEQ ID 79, the CDR3 amino acid sequences of the light chain according to SEQ ID 41, SEQ ID 49, SEQ ID 73 or SEQ ID 81, said amino acid sequence of a C-terminal region of LRP8 consisting of C-terminal amino acid residues 837-963 or a sequence within said residues 837-963 selected from the group consisting of amino acid residues 839-857, 850-864, 863-878, 874-887, 882-898, 898-917, 915-940, 940-963.
A drill for drilling railway sleepers, comprising: - a support structure, - a motor assembly supported by the support structure, - a handle connected to the support structure, - at least one control member arranged on the handle for operating the motor, - a spindle supported by the support structure and operable by the motor to rotate about a spindle axis, wherein a drilling tip can be coupled to said spindle, - a protective casing connected to the support structure and surrounding both the spindle and said drilling tip, said protective casing comprising a movable casing portion sliding in the direction of the spindle axis between an axially protracted position, in which it envelops the tip, and an axially retracted position, in which the tip protrudes out from the protective casing, characterized in that: the handle comprises two gripping portions (36, 37) for the two hands of the user, located on two diametrically opposite sides of the drill with respect to the spindle axis, the motor assembly comprises an electric motor, which can be powered by a rechargeable and replaceable battery, the drill comprising a lighting system with two light sources (44, 45) spaced apart from each other and arranged on two opposite sides with respect to a hypothetical work plane containing the spindle axis, wherein said light sources (44, 45) generate two illuminated fields overlapping at least in a drilling region of the drill, wherein said overlapping of the two illuminated fields axially extends along the whole stroke of the free end of the movable casing portion between the protracted position and the retracted position. - a support structure, - a motor assembly supported by the support structure, - a handle connected to the support structure, - at least one control member arranged on the handle for operating the motor, - a spindle supported by the support structure and operable by the motor to rotate about a spindle axis, wherein a drilling tip can be coupled to said spindle, - a protective casing connected to the support structure and surrounding both the spindle and said drilling tip, said protective casing comprising a movable casing portion sliding in the direction of the spindle axis between an axially protracted position, in which it envelops the tip, and an axially retracted position, in which the tip protrudes out from the protective casing, the handle comprises two gripping portions (36, 37) for the two hands of the user, located on two diametrically opposite sides of the drill with respect to the spindle axis, the motor assembly comprises an electric motor, which can be powered by a rechargeable and replaceable battery, the drill comprising a lighting system with two light sources (44, 45) spaced apart from each other and arranged on two opposite sides with respect to a hypothetical work plane containing the spindle axis, wherein said light sources (44, 45) generate two illuminated fields overlapping at least in a drilling region of the drill, wherein said overlapping of the two illuminated fields axially extends along the whole stroke of the free end of the movable casing portion between the protracted position and the retracted position.
System with a tool holder and a device for the identification of a tool which is accommodated in the tool holder, wherein the tool holder has a longitudinal axis and a diameter, wherein the tool holder has a recess on its side, which is formed perpendicular to the longitudinal axis of the tool holder and in which an RFID transponder is inserted; and wherein the device has a read/write head for communication with the RFID transponder, wherein the read/write head is arranged above or below the tool holder seen from the recess in the direction of the longitudinal axis of the tool holder and extends over at least 70% of the whole diameter of the tool holder, characterized in that the RFID transponder has a club-shaped transfer curve running along the longitudinal axis of the tool holder, i.e. a three-dimensional area in which a communication between a data carrier of the RFID transponder and the read/write head is possible, wherein the RFID transponder is inserted in such a way that the club-shaped transfer curve of the RFID transponder overlaps with the spatial extent of the read/write head. the tool holder has a longitudinal axis and a diameter, wherein the tool holder has a recess on its side, which is formed perpendicular to the longitudinal axis of the tool holder and in which an RFID transponder is inserted; and wherein the device has a read/write head for communication with the RFID transponder, wherein the read/write head is arranged above or below the tool holder seen from the recess in the direction of the longitudinal axis of the tool holder and extends over at least 70% of the whole diameter of the tool holder, characterized in that the RFID transponder has a club-shaped transfer curve running along the longitudinal axis of the tool holder, i.e. a three-dimensional area in which a communication between a data carrier of the RFID transponder and the read/write head is possible, wherein the RFID transponder is inserted in such a way that the club-shaped transfer curve of the RFID transponder overlaps with the spatial extent of the read/write head.
A method of treating a sintered mining insert comprising cemented carbide; wherein the cemented carbide comprises hard constituents in a metallic binder phase, and wherein the metallic binder phase content in the cemented carbide is 4 to 30 wt%; wherein the metallic binder phase comprises at least 80wt% of one or more metallic elements selected from Co, Ni and Fe; wherein the hard phase comprises at least 80 wt% WC; wherein said mining insert is subjected to a surface hardening process; wherein the surface hardening process is tumbling; wherein the tumbling process is conducted in dry conditions; wherein the tumbling process is a "High Energy Tumbling" process, wherein post tumbling a homogenous cemented carbide mining insert has been deformation hardened such that ΔHV3% ≥ 9.72 - 0.00543*HV3 bulk, wherein the ΔHV3% is the percentage difference between the HV3 measurement at 0.3 mm from the surface compared the HV3 measurement in the bulk; characterized in that the surface hardening process is executed at an elevated temperature of or above 100°C, preferably at a temperature of or above 200°C, more preferably at a temperature of between 200°C and 450°C. wherein the cemented carbide comprises hard constituents in a metallic binder phase, and wherein the metallic binder phase content in the cemented carbide is 4 to 30 wt%; wherein the metallic binder phase comprises at least 80wt% of one or more metallic elements selected from Co, Ni and Fe; wherein the hard phase comprises at least 80 wt% WC; wherein said mining insert is subjected to a surface hardening process; wherein the surface hardening process is tumbling; wherein the tumbling process is conducted in dry conditions; wherein the tumbling process is a "High Energy Tumbling" process, wherein post tumbling a homogenous cemented carbide mining insert has been deformation hardened such that ΔHV3% ≥ 9.72 - 0.00543*HV3 bulk, wherein the ΔHV3% is the percentage difference between the HV3 measurement at 0.3 mm from the surface compared the HV3 measurement in the bulk; characterized in that the surface hardening process is executed at an elevated temperature of or above 100°C, preferably at a temperature of or above 200°C, more preferably at a temperature of between 200°C and 450°C.
A user sequence transmission method, comprising: receiving, by a terminal device, first signaling sent by a network device, wherein the first signaling comprises first information used to indicate a quantity of user sequences in a first user sequence space, and the user sequences in the first user sequence space comprise a complete set of user sequences used by the terminal device served by the network device; and sending, by the terminal device, a first user sequence to the network device based on the first information, wherein the first information comprises a space level of the first user sequence space, and wherein the space level of the first user sequence space is a quantity of values of a maximum coherence degree of a subspace that can be obtained by dividing the first user sequence space. receiving, by a terminal device, first signaling sent by a network device, wherein the first signaling comprises first information used to indicate a quantity of user sequences in a first user sequence space, and the user sequences in the first user sequence space comprise a complete set of user sequences used by the terminal device served by the network device; and sending, by the terminal device, a first user sequence to the network device based on the first information, wherein the first information comprises a space level of the first user sequence space, and wherein the space level of the first user sequence space is a quantity of values of a maximum coherence degree of a subspace that can be obtained by dividing the first user sequence space.
A method for producing a nitride semiconductor product, said method comprising sequentially stacking on a substrate a nitride semiconductor n-type layer, a nitride semiconductor light-emitting layer of a multiple quantum well structure, and a nitride semiconductor p-type layer, thereby producing a nitride semiconductor product having a multiple quantum well structure, wherein said method comprises growing a first well layer having a thickness of 1 nm to 8 nm at 600°C to 1000°C; subsequently, elevating a growth temperature; growing a barrier sublayer C of a first barrier layer of the multiple quantum well structure by maintaining the elevated growth temperature at a constant value, which is higher than a growth temperature of the first well layer by 50°C to 300°C, to have a thickness of 1 nm or more; subsequently, lowering the growth temperature again by 50°C to 300°C; and further growing a barrier sublayer E of the first barrier layer of the multiple quantum well structure by maintaining the lowered growth temperature at a constant value to have a thickness of 1 nm or more, such that the total thickness of the first barrier layer is 3 nm to 40 nm; and subsequently growing a second well layer directly on the barrier sublayer E of the first barrier layer by maintaining the lowered growth temperature at the same constant value.
A wear plate for a fifth wheel hitch, comprising: a metal component, a ceramic component and a lubricious component, wherein the wear plate has a first surface and a second surface, wherein the first surface is an exposed surface and the second surface is opposite the upper surface, wherein the lubricious component has a total volume fraction that is highest at the first surface and is lowest at the second surface, wherein the ceramic component has a total volume fraction that is highest at the first surface and is lowest at the second surface, and wherein the metal component has a total volume fraction that is highest at the second surface and is lowest at the first surface.
A multi-shaft gas turbine power generation system, comprising: a gas generator including: a compressor that is configured to compress air in order to generate compressed air, a combustor that is configured to generate a combustion gas from the compressed air and fuel, and a high pressure turbine driven by the combustion gas; a power turbine including a low pressure turbine driven by a gas exhausted from the gas generator and a main power generator that is configured to generate power by a rotational force of the low pressure turbine in order to supply power to a power system, the gas generator and the power turbine having different shafts (12a,12b); an electric motor and power generator connected by the gas generator shaft to the gas generator and to the power system via a frequency converter; a natural energy power generation system that is configured to use renewable energy; and a control apparatus, wherein the control apparatus is configured to receive a load target of the power system and a load change factor, which is information from the natural energy power generation system using renewable energy, and is configured to output a control signal (IMWD) that controls the output power of the frequency converter. a compressor that is configured to compress air in order to generate compressed air, a combustor that is configured to generate a combustion gas from the compressed air and fuel, and a high pressure turbine driven by the combustion gas; a power turbine including a low pressure turbine driven by a gas exhausted from the gas generator and a main power generator that is configured to generate power by a rotational force of the low pressure turbine in order to supply power to a power system, the gas generator and the power turbine having different shafts (12a,12b); an electric motor and power generator connected by the gas generator shaft to the gas generator and to the power system via a frequency converter; a natural energy power generation system that is configured to use renewable energy; and a control apparatus, wherein the control apparatus is configured to receive a load target of the power system and a load change factor, which is information from the natural energy power generation system using renewable energy, and is configured to output a control signal (IMWD) that controls the output power of the frequency converter.
A method for controlling the distribution of electric power from a wind farm generating at least one of medium to high voltage AC electrical and medium voltage DC electrical power to a plurality of electrolyser modules for producing hydrogen, characterised by the steps of: a. estimating a real time available DC electrical power from the wind farm, the real time available DC electrical power controlled independently from the electrolyser modules; b. determining a number of available electrolyser modules; c. measuring one of a temperature or the voltage of each electrolyser module; d. determining a target current set point for each of said plurality of electrolyser modules based on the estimated available DC power, the number of available electrolyser modules, and the voltage of each of said available electrolyser modules; e. ramping a DC current supplied by at least one chopper-type DC-DC power converter, on the path between the wind farm and the electrolyser modules, to each of said available electrolyser modules toward said target current set point; f. repeating steps a to e at appropriate time intervals. a. estimating a real time available DC electrical power from the wind farm, the real time available DC electrical power controlled independently from the electrolyser modules; b. determining a number of available electrolyser modules; c. measuring one of a temperature or the voltage of each electrolyser module; d. determining a target current set point for each of said plurality of electrolyser modules based on the estimated available DC power, the number of available electrolyser modules, and the voltage of each of said available electrolyser modules; e. ramping a DC current supplied by at least one chopper-type DC-DC power converter, on the path between the wind farm and the electrolyser modules, to each of said available electrolyser modules toward said target current set point; f. repeating steps a to e at appropriate time intervals.