mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine rotor rotating with a compressor and a turbine blade mounted to an outer circumferential surface thereof, the gas turbine rotor comprising: a first rotor formed in a shaft shape extending by a predetermined length in an axial direction, and provided with an insertion hole at an end of the first rotor; a second rotor formed in a shaft shape extending by a predetermined length in the axial direction, and provided with an insertion part extending by a predetermined length at an end of the second rotor and corresponding to the insertion hole provided in the first rotor such that the insertion part is inserted into the insertion hole; and a connecting member mounted between the insertion hole and the insertion part to connect the first rotor and the second rotor together, and made of a material having a thermal expansion coefficient different from a thermal expansion coefficient of both the first rotor and the second rotor. a first rotor formed in a shaft shape extending by a predetermined length in an axial direction, and provided with an insertion hole at an end of the first rotor; a second rotor formed in a shaft shape extending by a predetermined length in the axial direction, and provided with an insertion part extending by a predetermined length at an end of the second rotor and corresponding to the insertion hole provided in the first rotor such that the insertion part is inserted into the insertion hole; and a connecting member mounted between the insertion hole and the insertion part to connect the first rotor and the second rotor together, and made of a material having a thermal expansion coefficient different from a thermal expansion coefficient of both the first rotor and the second rotor.
A method of isolating target cells from a mixture of cells, comprising: a) combining a mixture of cells comprising target cells and non-target cells with magnetized display cells that display one or more ligands on their surfaces, said ligands specific for a binding partner on a surface of said target cells; b) allowing said ligand to bind to said binding partner to produce magnetized display cells bound to said target cells; c) applying a magnetic field to collect said magnetized display cells bound to said target cells; and d) washing away non-target cells, thereby isolating said target cells. a) combining a mixture of cells comprising target cells and non-target cells with magnetized display cells that display one or more ligands on their surfaces, said ligands specific for a binding partner on a surface of said target cells; b) allowing said ligand to bind to said binding partner to produce magnetized display cells bound to said target cells; c) applying a magnetic field to collect said magnetized display cells bound to said target cells; and d) washing away non-target cells, thereby isolating said target cells.
A V-ribbed belt comprising a twisted cord comprising a carbon fiber as a core wire, wherein: the core wire has a core wire diameter of 0.6 to 1.2 mm; characterized in that the belt has a tensile elastic modulus of 240 to 500 N/(mm·%); wherein the pitch of the core wire is 0.1 to 0.5 mm larger than the core wire diameter. the core wire has a core wire diameter of 0.6 to 1.2 mm; characterized in that the belt has a tensile elastic modulus of 240 to 500 N/(mm·%); wherein the pitch of the core wire is 0.1 to 0.5 mm larger than the core wire diameter.
A method for producing a seismically passive foundation slab having at least one structure (2, 3, 4) arranged on the foundation slab, wherein the foundation slab is provided with a reinforcement configured in such a way that a tensile force can be absorbed by the foundation slab, which tensile force is at least as large as the tensile force (N A, N A2) acting on the foundation slab due to an earthquake, in that the reinforcement is formed from concrete steel, wherein the tensile yield strength of the concrete steel f yk is larger than 400 N/mm 2 and the reinforcement is orientated parallel or approximately parallel to the earth's surface, wherein the at least one structure (2, 3, 4) is erected on the foundation slab and connected to the foundation slab, wherein a plurality or multiplicity of structures (2, 3, 4) is arranged on the foundation plate.
A pulse generation apparatus configured to generate electrical pulses having pulse durations in the range of nanoseconds, wherein the electrical pulses have voltages having an amount of up to 60 V and/or currents of less than 20 A, said pulse generation apparatus comprising a signal source which provides an input signal; a delay element which is electrically coupled to the signal source (12, 36) and which delays a signal applied to the delay element by a predetermined time period on the passing through of the delay element; a reflection means which reflects signals passing through the delay element; and a signal output for outputting the electrical pulses which is electrically connected to the delay element, wherein an adaptation element (16, 32, 42) is provided which brings about an adaptation of the resistance of the signal source (12, 36) and/or of the reflection means to the wave impedance of the delay element, characterized in that the adaptation element comprises a laser diode and the signal source is a voltage source.
Microelectronic component assembly having: a sensorchip for capturing thermographic images with a front side, a rear side and a side face which connects the front side to the rear side; at least one evaluation circuit, wherein the at least one evaluation circuit is in contact with the sensorchip, at least in certain areas with the rear side and/or the side face of the sensorchip; a lens, wherein the lens is arranged on the front side of the sensorchip, wherein a vacuum is formed between the lens and the sensorchip, and a cap is arranged between the lens and the sensorchip; wherein the side face of the sensorchip and/or a side face of the evaluation circuit as well as side face of the lens have traces of mechanical erosion at least in certain areas; characterized in that the lens covers the sensorchip, a bezel is arranged between the lens and the sensorchip, wherein the bezel is located between the lens and the cap, and corresponding side faces of the cap and of the bezel have traces of mechanical erosion at least in certain areas. a sensorchip for capturing thermographic images with a front side, a rear side and a side face which connects the front side to the rear side; at least one evaluation circuit, wherein the at least one evaluation circuit is in contact with the sensorchip, at least in certain areas with the rear side and/or the side face of the sensorchip; a lens, wherein the lens is arranged on the front side of the sensorchip, wherein a vacuum is formed between the lens and the sensorchip, and a cap is arranged between the lens and the sensorchip; wherein the side face of the sensorchip and/or a side face of the evaluation circuit as well as side face of the lens have traces of mechanical erosion at least in certain areas; characterized in that the lens covers the sensorchip, a bezel is arranged between the lens and the sensorchip, wherein the bezel is located between the lens and the cap, and corresponding side faces of the cap and of the bezel have traces of mechanical erosion at least in certain areas.
An extra-oral dental x-ray imaging system, for performing a partial CT or partial 3D image of a region of interest of an object, comprising: a) an x-ray source (150, 1902) for exposing an object to x-rays so that the object may be imaged during the exposure; b) an x-ray imaging device (151, 1901) suitable for producing multiple radiated image frames during at least part of the exposure; c) a manipulator for moving the imaging device (151, 1901) and the x-ray source (150, 1902) along a path between plural positions corresponding to plural radiated image frames during the exposure, the manipulator enabling movement of both the x-ray source (150, 1902) and the imaging device (151, 1901) by selective translation and selective rotation about at least one axis of rotation located between a focal point of the x-ray source (150, 1902) and the x-ray imaging device (151, 1901), the axis of rotation being movable along a trajectory (1903a-d) during at least part of the exposure; and d) an exposure profile program for producing a partial CT or 3D image for said region of interest, with said profile, characterized in that e) the line connecting the focal spot of the x-ray source (150, 1902) and the middle point of the imaging device (151, 1901) is within ±45 degrees from the tangential to the said trajectory (1903a-d) of the movable axis of rotation. a) an x-ray source (150, 1902) for exposing an object to x-rays so that the object may be imaged during the exposure; b) an x-ray imaging device (151, 1901) suitable for producing multiple radiated image frames during at least part of the exposure; c) a manipulator for moving the imaging device (151, 1901) and the x-ray source (150, 1902) along a path between plural positions corresponding to plural radiated image frames during the exposure, the manipulator enabling movement of both the x-ray source (150, 1902) and the imaging device (151, 1901) by selective translation and selective rotation about at least one axis of rotation located between a focal point of the x-ray source (150, 1902) and the x-ray imaging device (151, 1901), the axis of rotation being movable along a trajectory (1903a-d) during at least part of the exposure; and d) an exposure profile program for producing a partial CT or 3D image for said region of interest, with said profile, e) the line connecting the focal spot of the x-ray source (150, 1902) and the middle point of the imaging device (151, 1901) is within ±45 degrees from the tangential to the said trajectory (1903a-d) of the movable axis of rotation.
A pharmaceutical composition comprising a therapeutically effective amount of plasminogen for use in treating Huntington's disease; wherein the plasminogen has at least 90%, 95%, 96%, 97%, 98% or 99% sequence identity with SEQ ID NO: 2, and still has the lysine binding activity or the proteolytic activity of plasminogen; or wherein the plasminogen is selected from Glu-plasminogen, Lys-plasminogen, mini-plasminogen, micro-plasminogen, delta-plasminogen, that retain the proteolytic activity of plasminogen.
A method in own aircraft for determination of kinematics of a moving object comprising: - receiving angular data for the object at a number of observation times, - determining a first kinematic state (X 0) of the object, based on the angular data at a first observation time; - determining a predicted kinematics state of the object, based on a kinematic model of the object and at least one previously determined kinematic state (X t) of the object, and - determining at subsequent observation time, a subsequent kinematic state (X t+ΔT) of the object based on said predicted kinematic state of the object and angular data for the object, characterized in that said kinematic model comprises an assumption that the object follows a guidance law locked on said own aircraft. - receiving angular data for the object at a number of observation times, - determining a first kinematic state (X 0) of the object, based on the angular data at a first observation time; - determining a predicted kinematics state of the object, based on a kinematic model of the object and at least one previously determined kinematic state (X t) of the object, and - determining at subsequent observation time, a subsequent kinematic state (X t+ΔT) of the object based on said predicted kinematic state of the object and angular data for the object, characterized in that said kinematic model comprises an assumption that the object follows a guidance law locked on said own aircraft.
Compounds of Formula wherein R is the carbon atom of a, linear or branched group, represented by: aryl, alkenyl, alkynyl, acyl, or alkoxycarbonyl groups; or wherein R is the nitrogen atom of a, linear or branched group represented by: alkylamine, arylamine, alkenylamine or alkynylamine groups.
A method for mechanical weed control of a crop field comprising; - tilling with a spring tine weed harrow one to five days after crop planting; wherein the tilling step comprises: - determining a preferred tip working depth of the spring tines of said spring tine weed harrow in the soil of said crop field; - continuously or at preset time intervals, indirectly or directly, performing a measurement of the tip working depth of the spring tines in the soil of said crop field; - in response to said measurement, adjusting, if necessary, the pressure on the spring tines in response to a deviation of said measured tip working depth, said deviation corresponding to a variation of soil type on said crop field. - tilling with a spring tine weed harrow one to five days after crop planting; wherein the tilling step comprises: - determining a preferred tip working depth of the spring tines of said spring tine weed harrow in the soil of said crop field; - continuously or at preset time intervals, indirectly or directly, performing a measurement of the tip working depth of the spring tines in the soil of said crop field; - in response to said measurement, adjusting, if necessary, the pressure on the spring tines in response to a deviation of said measured tip working depth, said deviation corresponding to a variation of soil type on said crop field.
Method of producing a friction lining for wet operation, whereby a textile woven fabric of staple fibers is resinated with resin or resin mixture and then cured under pressure and/or at an increased temperature, and the resin or resin mixture is cured in at least two steps, and in a first step the resin or resin mixture is pre-polymerized to produce a pre-product and the final curing of the resin or resin mixture takes place in another step once the pre-product has been placed on a substrate, characterized in that staple fibers with a length selected from a range with a lower limit of 30 mm and an upper limit of 200 mm are used, the pre-polymerization of the resin or resin mixture is run at a temperature between 150 °C and 250 °C without pressure and the final curing takes place below the melting point of the resin or resin mixture in order not to liquefy the latter.
A mobile station comprising a user interface via which the user of the mobile station can receive services of a mobile communication system and give instructions and orders associated with the use of the services, and which mobile station monitors the transmission of its location cell and receives from the transmitting parts intended for the mobile station, the mobile station being characterized by comprising registration means for composing and transmitting a registration message to a mobile communication network over a signaling channel, the registration message indicating that the user of the mobile station desires to register as a user of the service-on-demand available at the location cell, and for receiving an acknowledgement of the registration, wherein the service-on-demand is offered to all mobile stations located in the cell over a first channel and wherein the service-on-demand is available once the user is registered as the user of the service-on-demand in the cell, and service means responsive to the acknowledgement for receiving the service-on-demand in a manner indicated by the acknowledgement, and for conveying the service to the user interface.
A network configuration device, comprising: an interface component configured to couple to a computer, the computer being part of a network having a gateway device to which multiple electronic devices may be connected; and a memory component containing computer-implementable instructions that, when executed by a processor in the computer, perform at least the steps of: gathering network configuration information from the gateway device, the network configuration information configured to enable an electronic device to join the network, wherein the network configuration information includes wireless security settings for the network, wherein the security settings include an encryption method and a security key; and saving the network configuration information in the memory component; wherein the interface component is configured, after uncoupling the computer, to couple to the electronic device and further computer-implementable instructions, when performed by a processor in the electronic device, perform at least the step of joining the electronic device to the network using the network configuration information saved in the memory component. an interface component configured to couple to a computer, the computer being part of a network having a gateway device to which multiple electronic devices may be connected; and a memory component containing computer-implementable instructions that, when executed by a processor in the computer, perform at least the steps of: gathering network configuration information from the gateway device, the network configuration information configured to enable an electronic device to join the network, wherein the network configuration information includes wireless security settings for the network, wherein the security settings include an encryption method and a security key; and saving the network configuration information in the memory component; wherein the interface component is configured, after uncoupling the computer, to couple to the electronic device and further computer-implementable instructions, when performed by a processor in the electronic device, perform at least the step of joining the electronic device to the network using the network configuration information saved in the memory component.
A method for forming two-piece can using a laminated steel sheet as a base material, comprising the steps of: blanking the laminated steel sheet; forming a can body in a shape of cylinder integrated with bottom by applying repeated several cycles of drawing to a circular blank of the laminated steel sheet, obtained by blanking the laminated steel sheet; forming a dome protruding inside of the can at the can bottom; trimming an opening of the can body; applying diametral reduction to the opening of the can body after trimming to a diameter smaller than the diameter of the can body, while satisfying the formulae and; forming a bead at the opening end of the can body, thus obtaining the two-piece can, wherein the above working steps include the step of applying heat treatment to the laminated steel sheet during the working steps, and wherein the heat treatment step includes the step of heating the laminated steel sheet to a temperature in a range from the glass transition point of the film of the laminated steel sheet to the melting point thereof + 30°C, followed by applying rapid cooling to the laminated steel sheet to a temperature of the glass transition point or below within 30 seconds after the heating, at a stage that the degree of working is in a range of 0.2 ≤ d/R ≤ 0.5 and of 1.5 ≤ h/(R - r) ≤ 2.5, 1.5 ≤ h / R − r d / R ≤ 0.25 where, h is the height from the can bottom to the tip of the opening, R is the circular blank positioning radius, r is the radius of the can bottom, and d is the radius of the tip of the opening. blanking the laminated steel sheet; forming a can body in a shape of cylinder integrated with bottom by applying repeated several cycles of drawing to a circular blank of the laminated steel sheet, obtained by blanking the laminated steel sheet; forming a dome protruding inside of the can at the can bottom; trimming an opening of the can body; applying diametral reduction to the opening of the can body after trimming to a diameter smaller than the diameter of the can body, while satisfying the formulae and; forming a bead at the opening end of the can body, thus obtaining the two-piece can, wherein the above working steps include the step of applying heat treatment to the laminated steel sheet during the working steps, and wherein the heat treatment step includes the step of heating the laminated steel sheet to a temperature in a range from the glass transition point of the film of the laminated steel sheet to the melting point thereof + 30°C, followed by applying rapid cooling to the laminated steel sheet to a temperature of the glass transition point or below within 30 seconds after the heating, at a stage that the degree of working is in a range of 0.2 ≤ d/R ≤ 0.5 and of 1.5 ≤ h/(R - r) ≤ 2.5, 1.5 ≤ h / R − r d / R ≤ 0.25 where, h is the height from the can bottom to the tip of the opening, R is the circular blank positioning radius, r is the radius of the can bottom, and d is the radius of the tip of the opening.
A machine for grinding and/or polishing slabs of stone material, such as natural or agglomerated stone, ceramic or glass, comprising: a support bench for the slabs to be machined; at least one machining station placed above the support bench and comprising at least one pair of bridge-like support structures (16, 18) situated in mutually opposite positions and transversely arranged straddling the support bench, first means for relative movement in the longitudinal direction of the machining station and the slab on the support bench, and at least one beam whose two ends (22, 24) are supported by said support structures (16, 18); a plurality of spindles having a vertical sliding movement with motorized vertical axis and distributed along the beam; said beam being movable transversely on said support structures (16, 18) by means of second movement means and at the bottom end of the spindle there being present at least one tool holder rotating with the motorized vertical axis of said spindle and carrying at least one abrasive tool for forming grinding and/or polishing heads; characterized in that at least one spindle is supported on the beam so that it can be swivelled about an oscillation axis which is parallel to, but separate from the motorized vertical axis of the spindle, third motorized means also being present for causing oscillation of said at least one spindle about the respective oscillation axis in cooperation with the transverse and longitudinal movements of the first and second movement means (19 and 21) for grinding and/or polishing the surface of a slab on the support bench. a support bench for the slabs to be machined; at least one machining station placed above the support bench and comprising at least one pair of bridge-like support structures (16, 18) situated in mutually opposite positions and transversely arranged straddling the support bench, first means for relative movement in the longitudinal direction of the machining station and the slab on the support bench, and at least one beam whose two ends (22, 24) are supported by said support structures (16, 18); a plurality of spindles having a vertical sliding movement with motorized vertical axis and distributed along the beam; said beam being movable transversely on said support structures (16, 18) by means of second movement means and at the bottom end of the spindle there being present at least one tool holder rotating with the motorized vertical axis of said spindle and carrying at least one abrasive tool for forming grinding and/or polishing heads; characterized in that at least one spindle is supported on the beam so that it can be swivelled about an oscillation axis which is parallel to, but separate from the motorized vertical axis of the spindle, third motorized means also being present for causing oscillation of said at least one spindle about the respective oscillation axis in cooperation with the transverse and longitudinal movements of the first and second movement means (19 and 21) for grinding and/or polishing the surface of a slab on the support bench.
A membrane comprising a composition having the formula: xXO 2.yY 2 O5 wherein: 0.5 < x < 0.7; 0.3 < y < 0.5; X is silicon; and Y is phosphorus, or a hydrate thereof, in which the composition comprises 50 wt% or more of crystalline material. 0.5 < x < 0.7; 0.3 < y < 0.5; X is silicon; and Y is phosphorus, or a hydrate thereof, in which the composition comprises 50 wt% or more of crystalline material.