mhurhangee/ep-ind-claims huggingface dataset:
An extruded thermoplastic aromatic polycarbonate and/or aromatic polyester carbonate multi-walled sheet structure comprising: a. at least two generally parallel spaced apart walls; and b. a plurality of ribs extending the length of the sheet in a direction of extrusion and separating adjacent walls; wherein the sheet has a total thickness greater than 40 mm and the polycarbonate has: (i) a melt viscosity ratio greater than 4.5 measured at 260°C, wherein the melt viscosity ratio is a ratio of the viscosity at a shear rate of 0.1 s -1 to the viscosity at a shear rate of 100 s -1; (ii) a mean weight average molecular weight of from 35,000 to 40,000 as measured using gel permeation chromatography; and (iii) a branching agent content of from 0.6 to 0.7 wt.%. a. at least two generally parallel spaced apart walls; and b. a plurality of ribs extending the length of the sheet in a direction of extrusion and separating adjacent walls; (i) a melt viscosity ratio greater than 4.5 measured at 260°C, wherein the melt viscosity ratio is a ratio of the viscosity at a shear rate of 0.1 s -1 to the viscosity at a shear rate of 100 s -1; (ii) a mean weight average molecular weight of from 35,000 to 40,000 as measured using gel permeation chromatography; and (iii) a branching agent content of from 0.6 to 0.7 wt.%.
A system for measuring and compensating a recurrent deviation (Δ z) of the actual position from the desired position of an electron beam's focal spot of an X-ray tube, said electron beam being emitted by an electron emitter of the X-ray tube's cathode on a target area of an X-ray tube's rotary anode disk, wherein said system comprises a position sensor adapted for detecting the recurrent deviation during at least one period thereof, a beam deflection unit with an integrated controller adapted for deflecting said electron beam based on the measurement results obtained from the position sensor such that a focal spot track of said electron beam describes a predefinable trajectory so as to compensate for stand vibrations and anode disk bending effects, said system being adapted for measuring and compensating a periodical wobbling of the inclination angle of an X-ray tube's rotary anode disk with respect to an ideal rotational plane which is oriented normal to a rotating shaft on which the rotary anode disk is inclinedly mounted due to an inaccuracy during its production process, wherein said position sensor is adapted for detecting deviations of said inclination angle over the time characterised in that said position sensor comprises position sensing means for detecting the deviation amplitude (Δ z) by which the position of the focal spot is deviated in the direction of the rotational axis (z) of the rotary anode disk's rotating shaft.
A control valve suitable for a variable displacement compressor, the control valve comprises a pressure sensing section, a solenoid section, and a valve section composed of a valve element formed in an end part of a valve rod that acts as a movement member, wherein the valve element is configured to adjust an internal pressure of the compressor by a degree of opening of the valve element, and to vary a discharge displacement; said control valve for a variable displacement compressor (20, whereby a pressure sensing section is configured so to receive a discharge pressure (Pd) of the compressor and so to apply an urging force to said movement member; said solenoid section is configured to apply, in cooperation with the urging force of the pressure sensing section, an urging force to the movement member in accordance with an input signal; a degree of opening of said valve element is set in accordance with a position of said movement member; a communicating channel for communicating a compressor inner chamber with a discharge pressure region of the compressor configured so to adjust a rate of air through the communicating channel; wherein the control valve is further configured to receive a suction pressure (Ps) of said compressor to apply a further urging force to the movement member; characterized by a cap element of elastic deformation which is fitted on the end of the valve rod and a holder of an expanding and contracting member constituting the pressure sensing section are configured so to block communication between a fluid having said discharge pressure (Pd) introduced to said pressure sensing section, and a fluid having the suction pressure (Ps) introduced to said control valve by contact of the cap element and the holder of the expanding and contracting member.
A train control system which performs radio communication between an on-board control device installed in a vehicle and a ground control device mounted on a ground, the train control system comprising: fixed block section setting means that sets a section obtained by adding a safe deceleration control distance necessary for stopping, to a radio communication disrupted section (A-11) in which radio communication is disrupted at an end, as a fixed block section (A-14); characterized by stop limit position setting means that sets a position rearward (upstream side) by a margin distance (A-13) from an end of the fixed block section (A-14), for a train entering the fixed block section (A-14), as a stop limit position on the end side of the fixed block section (A-14); and control means that controls the train, based on the fixed block section (A-14) and the stop limit position, wherein the safe deceleration control distance is a distance obtained by adding a deceleration distance (A-12) necessary for stopping of the vehicle and the margin distance (A-13), wherein the stop limit position setting means further sets, when the radio communication is disrupted in a state in which all or part of the train is on rail in the fixed block section (A-14), a position rearward (upstream side) by the margin distance from a more rearward (upstream side) position, out of a tail end position of the train and a start position of the fixed block section (A-14), for a subsequent train, as a stop limit position at a start side of the fixed block section (A-14). fixed block section setting means that sets a section obtained by adding a safe deceleration control distance necessary for stopping, to a radio communication disrupted section (A-11) in which radio communication is disrupted at an end, as a fixed block section (A-14); characterized by stop limit position setting means that sets a position rearward (upstream side) by a margin distance (A-13) from an end of the fixed block section (A-14), for a train entering the fixed block section (A-14), as a stop limit position on the end side of the fixed block section (A-14); and control means that controls the train, based on the fixed block section (A-14) and the stop limit position,
A graphite structure comprising: a plurality of domed graphite domains each including a curved layer body of graphene sheets, wherein the plurality of domed graphite domains are arranged in plane, and the domed graphite domains adjacent to each other are connected to each other, and the height of the domed graphite domains is 20 nm - 5000 nm. a plurality of domed graphite domains each including a curved layer body of graphene sheets, wherein the plurality of domed graphite domains are arranged in plane, and the domed graphite domains adjacent to each other are connected to each other, and the height of the domed graphite domains is 20 nm - 5000 nm.
A marine acoustic source array for generating an acoustic wave in a body of water, the marine acoustic source array comprising: first and second external source sub-arrays (114a, 114c), each sub-array including one or more individual source elements; a first actuator device connected to the first external source sub-array; and a second actuator device connected to the second external source sub-array, wherein the first actuator device has a corresponding cable configured to connect to a first lead-in, the first actuator device being configured to adjust the length of the corresponding cable, and the second actuator device has a corresponding cable configured to connect to a second lead-in, the second actuator device being configured to adjust the length of the corresponding cable, such that a position of the source array as a whole is controllable along a line substantially perpendicular to a path of the source array, the marine acoustic source array characterized by further comprising a first pulley connected to the cable of the first actuator device and configured to roll on the first lead-in; and a second pulley connected to the cable of the second actuator device and configured to roll on the second lead-in. first and second external source sub-arrays (114a, 114c), each sub-array including one or more individual source elements; a first actuator device connected to the first external source sub-array; and a second actuator device connected to the second external source sub-array, wherein the first actuator device has a corresponding cable configured to connect to a first lead-in, the first actuator device being configured to adjust the length of the corresponding cable, and the second actuator device has a corresponding cable configured to connect to a second lead-in, the second actuator device being configured to adjust the length of the corresponding cable, such that a position of the source array as a whole is controllable along a line substantially perpendicular to a path of the source array, the marine acoustic source array characterized by further comprising a first pulley connected to the cable of the first actuator device and configured to roll on the first lead-in; and a second pulley connected to the cable of the second actuator device and configured to roll on the second lead-in. a first pulley connected to the cable of the first actuator device and configured to roll on the first lead-in; and a second pulley connected to the cable of the second actuator device and configured to roll on the second lead-in.
A method of combustion, the method comprising: combusting a fuel in a combustion region of an up-fired or down-fired reformer, the combustion region being at least partially surrounded by one or more walls, the combusting being performed by a plurality of burners, wherein at least one of the plurality of burners is a wall-bound burner and at least one of the plurality of burners is a non-wall-bound burner; and forming non-uniform injection properties with the wall-bound burner, wherein one or more injection properties of the wall-bound burner are different from one or more injection properties of the non-wall-bound burner, and wherein the non-uniform injection properties of the wall-bound burner are formed by the one or more injection properties of the wall-bound burner, the one or more injection properties of the wall-bound burner and the non-wall-bound burner being selected from the group consisting of an angle of one or more injectors, a flow through one or more injectors, an amount and/or location of oxidant injectors, an amount and/or location of fuel injectors, and combinations thereof, characterized by the non-uniform injection properties generating a heat profile, the heat profile providing a first heat density proximal to the one or more walls and a second heat density distal from the one or more walls, the second heat density being greater than the first heat density. combusting a fuel in a combustion region of an up-fired or down-fired reformer, the combustion region being at least partially surrounded by one or more walls, the combusting being performed by a plurality of burners, wherein at least one of the plurality of burners is a wall-bound burner and at least one of the plurality of burners is a non-wall-bound burner; and forming non-uniform injection properties with the wall-bound burner, wherein one or more injection properties of the wall-bound burner are different from one or more injection properties of the non-wall-bound burner, and wherein the non-uniform injection properties of the wall-bound burner are formed by the one or more injection properties of the wall-bound burner, the one or more injection properties of the wall-bound burner and the non-wall-bound burner being selected from the group consisting of an angle of one or more injectors, a flow through one or more injectors, an amount and/or location of oxidant injectors, an amount and/or location of fuel injectors, and combinations thereof,
A method for manufacturing a powdered fermented paste, comprising the steps of: pretreating a fermented paste; punching holes in the pretreated fermented paste and freezing the punched fermented paste; freeze-drying the frozen fermented paste; grinding the freeze-dried fermented paste; and heat-drying the ground paste. pretreating a fermented paste; punching holes in the pretreated fermented paste and freezing the punched fermented paste; freeze-drying the frozen fermented paste; grinding the freeze-dried fermented paste; and heat-drying the ground paste.
A battery management system for use in charging a rechargeable battery having a nominal operating range so that the temperature of the battery is within a selected range, the battery management system comprising a controller, a temperature sensor and a charge indicator, wherein: the temperature sensor is configured to provide a temperature signal based on a temperature of the rechargeable battery; wherein the charge indicator is configured to provide an indication of the level of charge of cells of the battery; wherein in a first mode the controller is configured to control a charging current for charging the rechargeable battery based on the temperature signal, so that in response to the temperature signal indicating that the temperature exceeds a first threshold temperature signal value the charging current is tapered down as a function of increasing temperature; wherein the controller is configured to throttle the current supplied to the rechargeable battery in an effort to stop the temperature of the battery from continuing to rise; and, when the rechargeable battery is charged to a certain level, in a second mode the controller is configured to balance the cells based on the indicated level of charge of each respective cell, in response to the charging current being supplied to the battery exceeding a selected charging current threshold. the temperature sensor is configured to provide a temperature signal based on a temperature of the rechargeable battery; wherein the charge indicator is configured to provide an indication of the level of charge of cells of the battery; wherein in a first mode the controller is configured to control a charging current for charging the rechargeable battery based on the temperature signal, so that in response to the temperature signal indicating that the temperature exceeds a first threshold temperature signal value the charging current is tapered down as a function of increasing temperature; wherein the controller is configured to throttle the current supplied to the rechargeable battery in an effort to stop the temperature of the battery from continuing to rise; and, when the rechargeable battery is charged to a certain level, in a second mode the controller is configured to balance the cells based on the indicated level of charge of each respective cell, in response to the charging current being supplied to the battery exceeding a selected charging current threshold.
A stress properties measurement method for measuring properties of stresses generated in a structure (V1, V2, V3), the stress properties measurement method comprising: acquiring, from a first imaging device, a plurality of thermal images (CPG1,...,CPG5) corresponding to temperatures of a surface of the structure, the plurality of thermal images (CPG1,...,CPG5) being different in imaging time from each other; generating a stress distribution image (CPG1,...,CPG5) corresponding to each of the plurality of thermal images (CPG1,...,CPGS); acquiring a stress value (P1A,...,P5D) of a first section that is smaller than a predetermined value and respective stress values (P1A,...,P5D) of a plurality of second sections where stresses are concentrated for the stress distribution image (CPG1,...,CPG5); and deriving correlation properties of stresses at a section of the structure based on the stress value (P1A,...,P5D) of the first section acquired and the respective stress values (P1A,...,P5D) of the plurality of second sections acquired. acquiring, from a first imaging device, a plurality of thermal images (CPG1,...,CPG5) corresponding to temperatures of a surface of the structure, the plurality of thermal images (CPG1,...,CPG5) being different in imaging time from each other; generating a stress distribution image (CPG1,...,CPG5) corresponding to each of the plurality of thermal images (CPG1,...,CPGS); acquiring a stress value (P1A,...,P5D) of a first section that is smaller than a predetermined value and respective stress values (P1A,...,P5D) of a plurality of second sections where stresses are concentrated for the stress distribution image (CPG1,...,CPG5); and deriving correlation properties of stresses at a section of the structure based on the stress value (P1A,...,P5D) of the first section acquired and the respective stress values (P1A,...,P5D) of the plurality of second sections acquired.
A protective element for a circuit board having at least one electronic component mounted on the circuit board, wherein the circuit board is provided with the electronic component to be arranged as part of a lamp on a support element of the lamp and the protective element is designed to be arranged together with the circuit board and the electronic component on the support element of the lamp, having - a cover element, characterized by - at least one holding element for mounting the cover element on the circuit board. - a cover element, - at least one holding element for mounting the cover element on the circuit board.
Machine for processing steel wire, said machine comprising a frame, said frame comprises two or more steel sheets (102, 112, 302, 312), said two or more steel sheets being connected to one another by slot (104, 106, 304, 306) and tongue connections (114, 116, 314, 316) characterized in that said slot and tongue connections are fixed by means of a weld seam (120, 122), wherein said weld seam is on the side of a steel sheet opposite the insertion side of said tongue.
A dual reconstructive wire system for use with an anatomy comprising: a first wire having a first end, a second end and defining a first length, the first end of the first wire operable to engage the anatomy, and the second end extending outside the anatomy; a second wire having a first end, a second end and defining a second length, the first end of the second wire operable to engage the anatomy, and the second end extending outside the anatomy; a first cannulated insertion instrument that has a first end operable to be inserted into the anatomy, and a second end that extends beyond the anatomy; and a second cannulated insertion instrument that has a first end operable to be inserted into the anatomy, a second end that extends beyond the anatomy, the first and second cannulated insertion instruments having a length that is less than the first length and less than the second length; wherein the first wire passes through the first cannulated insertion instrument such that (i) the first end of the first wire extends beyond the first end of the first cannulated insertion instrument, and (ii) the second end of the first wire extends beyond the second end of the first cannulated insertion instrument by a first distance, and the second wire passes through the second cannulated insertion instrument such that (i) the first end of the second wire extends beyond the first end of the second cannulated insertion instrument, and (ii) the second end of the second wire extends beyond the second end of the second cannulated insertion instrument by a second distance characterized in that the second distance is greater than the first distance when the first ends (214, 220) of the first and second wires (202, 204) are inserted into the anatomy at a desired depth and the second length is greater than the first length to enable the second wire to be coupled to the anatomy after the first wire is coupled to the anatomy such that an instrument used to couple the second wire to the anatomy does not contact the first wire. a first wire having a first end, a second end and defining a first length, the first end of the first wire operable to engage the anatomy, and the second end extending outside the anatomy; a second wire having a first end, a second end and defining a second length, the first end of the second wire operable to engage the anatomy, and the second end extending outside the anatomy; a first cannulated insertion instrument that has a first end operable to be inserted into the anatomy, and a second end that extends beyond the anatomy; and a second cannulated insertion instrument that has a first end operable to be inserted into the anatomy, a second end that extends beyond the anatomy, the first and second cannulated insertion instruments having a length that is less than the first length and less than the second length;
A panel dividing system for dividing panel-like workpieces to size, having a delivery region, a discharge table, at least one first processing device, preferably a saw, and a conveyor device, which conveys the workpieces at least from the delivery region via the first processing device to the discharge table, wherein the conveyor device is located on both sides of the first processing device, in such a manner that the first processing device can be supplied from at least two sides, and the conveying path of the conveyor device is at least regionally and at least approximately U-shaped, in such a manner that the delivery region and discharge table are located on the same side of the system, characterized in that the panel dividing system includes a further processing device, preferably a drill and/or a milling cutter and/or a labelling device, which is disposed in the vicinity of a base of the U of the conveying path or in the vicinity of the beginning of a second leg, as viewed in the conveying direction, of the U of the conveying path.
A vacuum cleaner, comprising: a housing, comprising an upper end surface; a motor unit, disposed inside the housing and configured to produce a suction force; a dust cup, disposed on the housing and configured to collect particles that are sucked in, the dust cup comprising a suction port; a battery, configured to supply power for the vacuum cleaner; a handle, located on the housing; and a suction pipe unit having a storage state, in the storage state, the suction pipe unit extends from the suction port on one side of the dust cup over the handle and extends along a length direction of the handle to the other side of the dust cup, wherein the motor unit and the dust cup are arranged along an axial direction of the motor unit, and the battery is disposed on one side of the housing. a housing, comprising an upper end surface; a motor unit, disposed inside the housing and configured to produce a suction force; a dust cup, disposed on the housing and configured to collect particles that are sucked in, the dust cup comprising a suction port; a battery, configured to supply power for the vacuum cleaner; a handle, located on the housing; and a suction pipe unit having a storage state, in the storage state, the suction pipe unit extends from the suction port on one side of the dust cup over the handle and extends along a length direction of the handle to the other side of the dust cup, wherein the motor unit and the dust cup are arranged along an axial direction of the motor unit, and the battery is disposed on one side of the housing.