mhurhangee/ep-ind-claims huggingface dataset:
Method of use of a pneumatic material conveying system, such as in a waste conveying system, which comprises a waste station comprising a separating device, in which material to be conveyed is separated from the conveying air, and a more extensive conveying system which comprises: - a main conveying pipe, and - a number of subsystems, which are connected via the main conveying pipe to the waste station, which subsystem comprises: - at least one input point of material, more particularly of waste material, - an accumulator tank, - a conveying pipe, which is connected to the input point and the accumulator tank, and - which pneumatic material conveying system comprises means (25,26) for achieving a pressure difference in the conveying pipe at least during the conveyance of material, in which method: - material is conveyed from the input point to the accumulator tank of the subsystem, where the material is separated from the conveying air, - the accumulator tank of the subsystem is emptied,and - in connection with the subsystem a local partial-vacuum generating apparatus or a temporary partial-vacuum generator is used to achieve the suction effect needed in material conveyance and/or a partial-vacuum generating apparatus of the more extensive waste conveying system is used to achieve the suction effect needed in material conveyance, characterized in that the pneumatic material conveying system is expanded modularly by means of the subsystems, and that the main conveying pipe is ring-shaped and connected into a circuit such that conveying air is circulated in the main conveying pipe, and that the material is conveyed from the accumulator tank of the subsystem onwards along the main conveying pipe of the more extensive system to the separating device of the waste station, where the material to be conveyed is separated from the conveying air. - a main conveying pipe, and - a number of subsystems, which are connected via the main conveying pipe to the waste station, - at least one input point of material, more particularly of waste material, - an accumulator tank, - a conveying pipe, which is connected to the input point and the accumulator tank, and - which pneumatic material conveying system comprises means (25,26) for achieving a pressure difference in the conveying pipe at least during the conveyance of material, - material is conveyed from the input point to the accumulator tank of the subsystem, where the material is separated from the conveying air, - the accumulator tank of the subsystem is emptied,and - in connection with the subsystem a local partial-vacuum generating apparatus or a temporary partial-vacuum generator is used to achieve the suction effect needed in material conveyance and/or a partial-vacuum generating apparatus of the more extensive waste conveying system is used to achieve the suction effect needed in material conveyance,
A method of identifying a subject at risk of developing chronic fatigue syndrome or diagnosing a subject having CFS, said method comprising testing a biological sample that has been obtained from the subject for at least one single nucleotide polymorphism of at least one transient receptor potential ion channel gene known to correlate with CFS, wherein the SNP of the TRP ion channel gene is rs12682832 (TRPM3), rs11142508 (TRPM3), rs655207 (TRPC4), or rs6650469 (TRPC4).
A method for operating a charging surface in a wireless charging device, comprising: providing a charging current to at least one active transmitting coil (LP-i) in a plurality of transmitting coils (LP-1 - LP-18) that is deployed across the charging surface, wherein the charging current causes a wireless transfer of power through the at least one active transmitting coil (1006, 1008) to a chargeable device located on the charging surface and wherein each of the plurality of transmitting coils is configured to wirelessly transmit power through the charging surface when activated by an alternating current; the method being characterized by the following steps: measuring voltages across three or more transmitting coils in the charging surface; and determining that the chargeable device is in motion across the charging surface based on changes in the voltages measured across the three or more transmitting coils; determining a rate of change of a signal representative of the voltage measured across a first transmitting coil in the three or more transmitting coils; and determining a direction of motion of the chargeable device across the charging surface based on a comparison of the rate of change of the signal with a threshold value. measuring voltages across three or more transmitting coils in the charging surface; and determining that the chargeable device is in motion across the charging surface based on changes in the voltages measured across the three or more transmitting coils; determining a rate of change of a signal representative of the voltage measured across a first transmitting coil in the three or more transmitting coils; and determining a direction of motion of the chargeable device across the charging surface based on a comparison of the rate of change of the signal with a threshold value.
A system, comprising: - an agricultural harvester for processing agricultural crops, collecting an agricultural product from the crops, and depositing residue from the crops on the agricultural field as the harvester travels across the agricultural field, the harvester comprising a first storage container configured to store the agricultural product; - a support vehicle comprising a second storage container; and - an aerial vehicle configured to provide substantially real-time information as the aerial vehicle and the agricultural harvester travel about the agricultural field and comprising one or more sensors characterized in that the one or more sensors are configured to monitor a fullness of the second storage container, wherein the aerial vehicle is configured to provide a first signal indicative of the fullness of the second storage container to the agricultural harvester; and in that the one or more sensors are configured to monitor a characteristic of residue discharged by the agricultural harvester, and the aerial vehicle is configured to transmit a second signal indicative of the characteristic of residue to a processor (211, 221, 241), and the processor (211, 221, 241) is configured to process the second signal to generate a residue map providing an indication of residue coverage of an agricultural field. - an agricultural harvester for processing agricultural crops, collecting an agricultural product from the crops, and depositing residue from the crops on the agricultural field as the harvester travels across the agricultural field, the harvester comprising a first storage container configured to store the agricultural product; - a support vehicle comprising a second storage container; and - an aerial vehicle configured to provide substantially real-time information as the aerial vehicle and the agricultural harvester travel about the agricultural field and comprising one or more sensors characterized in that the one or more sensors are configured to monitor a fullness of the second storage container, wherein the aerial vehicle is configured to provide a first signal indicative of the fullness of the second storage container to the agricultural harvester;
A light emitting diode module (10, 1 10), comprising: a base (15, 115,315), the base being thermally and electrically conductive and having a light emitting region (20, 120) and a connecting flange (17, 117); an insulative layer selectively provided on the base (15, 115, 315), characterized in that the insulative layer is a powder coat, the insulative layer being positioned on the connecting flange (17, 117), wherein the base (15, 115, 315) has a reflective area, a first trace and a second trace (30a, 30b) are provided on the insulative layer, the first and second traces (30a, 30b) extending from pads on the connecting flange (17, 117) to a corresponding connecting region (33, 34) adjacent the light emitting region (20, 120); and LED chips are mounted in the light emitting region (20, 120) in a pattern, the set of LED chips being electrically connected to the first and second traces (30a, 30b) such that the first and second traces (30a, 30b) provide an anode and a cathode (31, 32) for the LED chips, wherein the LED chips are positioned in the reflective area and the reflective area is free of the insulative layer, and wherein the base is curved and the light emitting region is positioned in the base such that the base (1 15) is configured to shape emitted light in a focused manner. a base (15, 115,315), the base being thermally and electrically conductive and having a light emitting region (20, 120) and a connecting flange (17, 117); an insulative layer selectively provided on the base (15, 115, 315), characterized in that the insulative layer is a powder coat, the insulative layer being positioned on the connecting flange (17, 117), wherein the base (15, 115, 315) has a reflective area, a first trace and a second trace (30a, 30b) are provided on the insulative layer, the first and second traces (30a, 30b) extending from pads on the connecting flange (17, 117) to a corresponding connecting region (33, 34) adjacent the light emitting region (20, 120); and LED chips are mounted in the light emitting region (20, 120) in a pattern, the set of LED chips being electrically connected to the first and second traces (30a, 30b) such that the first and second traces (30a, 30b) provide an anode and a cathode (31, 32) for the LED chips, wherein the LED chips are positioned in the reflective area and the reflective area is free of the insulative layer, and wherein the base is curved and the light emitting region is positioned in the base such that the base (1 15) is configured to shape emitted light in a focused manner.
A work vehicle comprising: a work apparatus that performs predetermined work, using an engine as a motive power source; an engine stop section that stops the engine on the basis of a predetermined engine stop condition; a detection section that detects apparatus information related to the work apparatus; characterized in that the work vehicle further comprises: a determination section that determines whether or not a maintenance work state is kept, by using the apparatus information detected by the detection section, the maintenance work state being a state in which maintenance work is performed to ensure that an action is accomplished based on the predetermined work when the work apparatus performs the predetermined work; and an engine stop inhibition section that inhibits the engine from being stopped by the engine stop section even when the predetermined engine stop condition is established, in a case where maintenance of the work apparatus is being performed. a work apparatus that performs predetermined work, using an engine as a motive power source; an engine stop section that stops the engine on the basis of a predetermined engine stop condition; a detection section that detects apparatus information related to the work apparatus; characterized in that the work vehicle further comprises: a determination section that determines whether or not a maintenance work state is kept, by using the apparatus information detected by the detection section, the maintenance work state being a state in which maintenance work is performed to ensure that an action is accomplished based on the predetermined work when the work apparatus performs the predetermined work; and an engine stop inhibition section that inhibits the engine from being stopped by the engine stop section even when the predetermined engine stop condition is established, in a case where maintenance of the work apparatus is being performed. a determination section that determines whether or not a maintenance work state is kept, by using the apparatus information detected by the detection section, the maintenance work state being a state in which maintenance work is performed to ensure that an action is accomplished based on the predetermined work when the work apparatus performs the predetermined work; and an engine stop inhibition section that inhibits the engine from being stopped by the engine stop section even when the predetermined engine stop condition is established, in a case where maintenance of the work apparatus is being performed.
Device for the comminution of foodstuffs, which device has a drive device for driving at least one rotary cutter in rotation and has a container, characterized in that the drive device is fixable or fixed articulatedly to a base part and in that a holding device is provided which, for the rotatable mounting of the at least one rotary cutter, is insertable or inserted into the base part, wherein the drive device, fixed articulatedly to the base part, can be selectively pivoted into an open position or a closed position.
A support for raised floors, comprising in the following order: a base for resting on a lower surface, an element for connecting and adjusting the local height of a raised floor, and a resting head for one or more tiles of said raised floor wherein said connecting and adjustment element has a first portion, for providing floors that are inclined with respect to said lower surface, characterized in that said connecting and adjustment element has a second portion, which lies opposite said first portion, for providing floors that are parallel to said lower surface, said first portion and said second portion interacting alternately with said resting head by rotating said element through 180° wherein when said first portion is directed toward said resting head and said second portion is arranged toward said base, said resting head is slidable/rotatable on a concavity of the connecting and adjustment element for adjusting the inclination of the plane of said floor so as to provide said floors that are inclined relative to said lower surface and wherein when said first portion is arranged toward said base and said second portion is directed toward said resting head, said resting head rests stably without the possibility for inclination so as to provide said floors that are parallel to the lower surface.
A wind turbine blade comprising: a cylindrical root portion; a maximum chord position comprising a lifting airfoil cross sectional profile; a transition region comprising a radial transition length between the root portion and the maximum chord position; a trailing edge that is rounded in cross section from the root portion to at least one transition length radially outward of the maximum chord position; and an elongated tab extending from a pressure side of the wind turbine blade over at least a portion thereof from the maximum chord position to said one transition length outward of the maximum chord position; wherein the tab is located within an aft 10% of the chord length of the blade, and wherein the tab comprises a height normal to the pressure side, characterized in that the height gradually changes from 3 - 6% of local chord length at an inboard end of the tab to 0.5% - 2% of local chord length at an outboard end of the tab.. a cylindrical root portion; a maximum chord position comprising a lifting airfoil cross sectional profile; a transition region comprising a radial transition length between the root portion and the maximum chord position; a trailing edge that is rounded in cross section from the root portion to at least one transition length radially outward of the maximum chord position; and an elongated tab extending from a pressure side of the wind turbine blade over at least a portion thereof from the maximum chord position to said one transition length outward of the maximum chord position; wherein the tab is located within an aft 10% of the chord length of the blade, and wherein the tab comprises a height normal to the pressure side, characterized in that the height gradually changes from 3 - 6% of local chord length at an inboard end of the tab to 0.5% - 2% of local chord length at an outboard end of the tab..
A galvano motor configured to scan or deflect light from a light source, the galvano motor comprising: a rotating shaft; a rotating drive unit configured to rotationally drive the rotating shaft; and a rotating angle detector which is joined to one end of the rotating shaft, characterized in that the rotating shaft is configured so that a deflection member which is heavier than the rotating angle detector at the other end opposite to the one end to which the rotating angle detector is joined, when the deflection member is joined to the rotating shaft, a phase crossover frequency fphase in open-loop characteristics of the galvano motor, a torsion resonance frequency fscale between a center part of the rotating shaft and the rotating angle detector, and a torsion resonance frequency fmirror between the center part of the rotating shaft and the deflection member satisfy the relation of fphase < fscale ≤ fmirror, and phases at the torsion resonance frequencies fscale and fmirror are other than -180 degrees. a rotating shaft; a rotating drive unit configured to rotationally drive the rotating shaft; and a rotating angle detector which is joined to one end of the rotating shaft, characterized in that the rotating shaft is configured so that a deflection member which is heavier than the rotating angle detector at the other end opposite to the one end to which the rotating angle detector is joined, when the deflection member is joined to the rotating shaft, a phase crossover frequency fphase in open-loop characteristics of the galvano motor, a torsion resonance frequency fscale between a center part of the rotating shaft and the rotating angle detector, and a torsion resonance frequency fmirror between the center part of the rotating shaft and the deflection member satisfy the relation of fphase < fscale ≤ fmirror, and phases at the torsion resonance frequencies fscale and fmirror are other than -180 degrees.
A therapeutically effective amount of methyl sulfone for use in treating metastatic cancer, wherein the therapeutically effective amount is administered as a solution of methyl sulfone in the range of 0.2 to 0.6 mg methyl sulfone/ml solvent for spraying, topical, transdermal, or oral administration, or 1.0 to 5.0 mg methyl sulfone/ml solvent for IV infusion or intrathecal infusion.
A method of detecting a change in a parameter of interest incident along the length of an optical fiber sensor deployed in a region of interest, comprising: providing a first optical signal output by a narrowband optical source in a first optical path and a second optical signal output by the narrowband optical source in a second optical path; modulating the first optical signal to generate a plurality of probe pulses; launching the probe pulses into an optical fiber sensor deployed in a region of interest, the optical fiber sensor configured to respond along its length to a parameter of interest; mixing Rayleigh backscatter signals generated by the optical fiber sensor in response to probe pulses with the second optical signal to generate intermediate frequency, hereby referred as IF, signals; the method being characterized in that it further comprises: determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations. providing a first optical signal output by a narrowband optical source in a first optical path and a second optical signal output by the narrowband optical source in a second optical path; modulating the first optical signal to generate a plurality of probe pulses; launching the probe pulses into an optical fiber sensor deployed in a region of interest, the optical fiber sensor configured to respond along its length to a parameter of interest; mixing Rayleigh backscatter signals generated by the optical fiber sensor in response to probe pulses with the second optical signal to generate intermediate frequency, hereby referred as IF, signals; the method being characterized in that it further comprises: determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations. determining phase of the IF signals at a plurality of locations along the optical fiber sensor; and detecting a change in the parameter of interest along the length of the optical fiber sensor based on differences in the determined phases across a selected interval between the plurality of locations.
A data access processing method, wherein comprising: copying (101, 203) a kernel code and a global descriptor table on a memory of each node of a plurality of nodes in Non Uniform Memory Access Architecture respectively; with use of base addresses of segments of the kernel code on the respective nodes in the global descriptor table, mapping (102, 204) a virtual address of the kernel code to different linear addresses of the kernel code corresponding to the respective nodes, wherein the base addresses are recorded in the global descriptor table and represent relative offsets of the locations in the global descriptor table of the kernel codes on the respective nodes; and recording (103, 205) a mapping relation between the linear addresses of the kernel code corresponding to the respective nodes and physical addresses of the respective nodes in a kernel page table respectively, to enable a process to access the kernel code locally in the respective nodes. copying (101, 203) a kernel code and a global descriptor table on a memory of each node of a plurality of nodes in Non Uniform Memory Access Architecture respectively; with use of base addresses of segments of the kernel code on the respective nodes in the global descriptor table, mapping (102, 204) a virtual address of the kernel code to different linear addresses of the kernel code corresponding to the respective nodes, wherein the base addresses are recorded in the global descriptor table and represent relative offsets of the locations in the global descriptor table of the kernel codes on the respective nodes; and recording (103, 205) a mapping relation between the linear addresses of the kernel code corresponding to the respective nodes and physical addresses of the respective nodes in a kernel page table respectively, to enable a process to access the kernel code locally in the respective nodes.
Grooved and perforated turn roll of a fiber web machine including a shell and grooves formed on the surface of the shell, with suction holes extending through the shell disposed at the bottom of the grooves in the inward area of the edges, characterized in that the open area (A R) of the suction hole is at least two times larger than the cross-sectional area (A U) of the groove, and the bottom of the groove has at least one radius of curvature, the center of curvature of which is outside the groove.