mhurhangee/ep-ind-claims huggingface dataset:
Cast process for an explosive material of low vulnerability that associates, firstly, a solid phase comprising at least one low vulnerability solid explosive and, secondly, a meltable phase that comprises at least one meltable explosive, at least one phlegmatizer and at least one emulsifier for the phlegmatizer in the meltable explosive, process wherein the low vulnerability explosive material in solid state is placed in a melting vessel equipped with heating means (8a, 8b) and provided with stirring means, the low vulnerability explosive material being put into place in the vessel in the form of precast explosive grains of a smaller dimension of 1 mm to 4 mm, these grains having been produced earlier during melting, casting, solidifying and shaping stages, the precast grains of low vulnerability explosive material having dimensions greater than the largest initial particle size of the enclosed materials in their solid phase.
A vehicle hydraulic system including a valve control unit and a hydraulic directional control valve having first and second work ports (48, 50), a first and a second pilot operated check valve (34, 36), wherein the first and second work ports (48, 50) are connected to the respective first and second pilot operated check valve (34, 36), and a main spool for controlling communication between a pump, a hydraulic reservoir and the first and the second work ports (48, 50), the main spool being movable from a neutral position to an extend position and to a retract position and to respective first and second bleed positions wherein the respective work port (48, 50) is communicated with the hydraulic reservoir, wherein the valve control unit automatically generates first and second bleed commands, the main spool being movable, in response to the first bleed command, to the first bleed position wherein a first one of the work ports (48, 50) is communicated with the hydraulic reservoir and a second one of the work ports (50, 48) is not communicated with the pump, and, in response to the second bleed command, to the second bleed position wherein the second work port (50, 48) is communicated with the hydraulic reservoir and the first work port (48, 50) is not communicated with the pump; and the valve control unit generating the first bleed command to hold the main spool in the first bleed position for a first time period, after which the valve control unit generates a neutral command to hold the main spool in its neutral position for a second time period, and after which the valve control unit generates the second bleed command to hold the main spool in the second bleed position for a third time period.
An apparatus configured to detect an insertion of a biosensor and to read identification information of the biosensor (310, 410, 510), the identification information recorded according to a pattern of a plurality of color segments on a surface of the biosensor, and the apparatus comprising a light receiver (120, 330, 440, 450, 530, 540), a plurality of light emitters (110, 321, 322, 421, 422, 423, 521, 522, 523) located corresponding to and facing a plurality of color segments on a surface of the biosensor (310, 410, 510) when the biosensor (310, 410, 510) is inserted into the apparatus, and an identification code reader, characterized in that the plurality of light emitters (110, 321, 322, 421, 422, 423, 521, 522, 523) are arranged around the light receiver (120, 330, 440, 450, 530, 540); and the identification code reader is configured to sequentially turn on/off the plurality of light emitters (110, 321, 322, 421, 422, 423, 521, 522, 523) according to each position thereof, and read the light receiver (120, 330. 440, 450, 530, 540) to read identification information recorded on the segment of the surface of the biosensor which corresponds to and faces a position of the light emitter (110, 321, 322, 421, 422, 423, 521, 522, 523) which has been turned on.
A food waste treatment apparatus comprising: a housing including a food inlet opening at its top surface; an inner chamber where food waste introduced through the food inlet opening is collected; a stirring unit provided within the inner chamber and configured to stir the food waste; and an outer chamber positioned outside the inner chamber; wherein the food waste treatment apparatus includes multiple drainage holes at a circumferential portion and a bottom portion of the inner chamber; and wherein the food waste treatment apparatus further comprises at least one shower nozzle configured to inject and supply warm water into the inner chamber, and a drainpipe through which leachate collected in the outer chamber is discharged to the outside; characterized in that the food waste treatment apparatus comprises a rotation driving unit configured to rotate the stirring unit and the inner chamber, wherein the inner chamber and the stirring unit are rotated by the rotation driving unit in opposite directions. a housing including a food inlet opening at its top surface; an inner chamber where food waste introduced through the food inlet opening is collected; a stirring unit provided within the inner chamber and configured to stir the food waste; and an outer chamber positioned outside the inner chamber; wherein the food waste treatment apparatus includes multiple drainage holes at a circumferential portion and a bottom portion of the inner chamber; and wherein the food waste treatment apparatus further comprises at least one shower nozzle configured to inject and supply warm water into the inner chamber, and a drainpipe through which leachate collected in the outer chamber is discharged to the outside; characterized in that the food waste treatment apparatus comprises a rotation driving unit configured to rotate the stirring unit and the inner chamber, wherein the inner chamber and the stirring unit are rotated by the rotation driving unit in opposite directions.
Multilayer body (1, 2, 3), in particular security element for security documents, having an upper side and an underside, wherein the multilayer body has a metal layer, wherein an optically active surface relief is moulded, at least in regions, in a first surface of the metal layer facing towards the upper side of the multilayer body or forming the upper side of the multilayer body and/or in a second surface of the metal layer facing towards the underside of the multilayer body or forming the underside of the multilayer body, wherein, in at least one first region (31 to 39) of the multilayer body, the surface relief of a first relief structure is formed, which has a sequence of elevations and depressions in at least one direction, determined by an assigned azimuth angle, whose elevations occur in sequence with a period P, which is smaller than a wavelength of the visible light, wherein the minima of the depressions lie on a basal surface and the first relief structure has a relief depth t which is determined by the distance of the maxima of the elevations of the first relief structure from the basal surface, in a direction perpendicular to the basal surface, and wherein the profile shape and/or the relief depth t of the first relief structure is chosen such that the coloured appearance of the light (52, 53), which strikes the first region (31 to 39) at at least one first angle of incidence, and the light that is directly reflected from the metal layer or is directly transmitted through the metal layer, is changed, in particular is changed by plasmon resonance of the metal layer with the incident light, characterised in that, the first relief structure has an asymmetrical profile shape with respect to a reflection onto the basal surface, wherein the width of the elevations or depressions of the first relief structure, relative to a distance of t/2 from the basal surface, is at least 0.6 x P, preferably 0.7 x P or at most 0.4 x P, in particular no higher than 0.3 x P.
An illumination system for use in a stereolithography apparatus, comprising: - a planar support supporting a two-dimensional array of individually controllable wide-angle light-emitting diodes LEDs; and - a multilens projector array arranged relative to the array, and adapted to project a focussed image of the LEDs onto a work area; - wherein said multilens projector array has an edge area focus error which is smaller than a central area focus error. - a planar support supporting a two-dimensional array of individually controllable wide-angle light-emitting diodes LEDs; and - a multilens projector array arranged relative to the array, and adapted to project a focussed image of the LEDs onto a work area; - wherein said multilens projector array has an edge area focus error which is smaller than a central area focus error.
A method for detecting swell noise in seismic data using a programmable computer programmed to perform the operations of: incrementally advancing a sliding window through the seismic data, wherein each incremental advancement of the sliding window includes: collecting a subset (Gj)of the seismic data that lies within the sliding window; generating a local signal mask (Lj) by assigning amplitudes in the power spectrum that are greater than a first threshold a first value and assigning amplitudes in the power spectrum that are less than the first threshold a second value; and adding the local signal mask to a previously accumulated local signal mask to form an updated accumulated signal mask; calculating an average signal mask (L ave) from the updated accumulated signal mask; and generating a final signal mask (F SM) by assigning amplitudes in the average signal mask that are greater than a second threshold a third value and assigning amplitudes in the average signal mask that are less than the second threshold a fourth value, wherein the final signal mask identifies frequencies and traces of the seismic data contaminated with swell noise. incrementally advancing a sliding window through the seismic data, wherein each incremental advancement of the sliding window includes: collecting a subset (Gj)of the seismic data that lies within the sliding window; generating a local signal mask (Lj) by assigning amplitudes in the power spectrum that are greater than a first threshold a first value and assigning amplitudes in the power spectrum that are less than the first threshold a second value; and adding the local signal mask to a previously accumulated local signal mask to form an updated accumulated signal mask; collecting a subset (Gj)of the seismic data that lies within the sliding window; generating a local signal mask (Lj) by assigning amplitudes in the power spectrum that are greater than a first threshold a first value and assigning amplitudes in the power spectrum that are less than the first threshold a second value; and adding the local signal mask to a previously accumulated local signal mask to form an updated accumulated signal mask; calculating an average signal mask (L ave) from the updated accumulated signal mask; and generating a final signal mask (F SM) by assigning amplitudes in the average signal mask that are greater than a second threshold a third value and assigning amplitudes in the average signal mask that are less than the second threshold a fourth value, wherein the final signal mask identifies frequencies and traces of the seismic data contaminated with swell noise.
Combination of an electricity conducting element and a connector cable, wherein the electricity conducting element comprises: - a body of insulating material; - an electrical conductor extending through the body; - at least one passive electrical sensor, such as a Rogowski coil or the primary part of a capacitive voltage divider, embedded or integrated in the insulating material of the body, - at least one shielded connector with one or more terminals arranged on the outer surface of the body and wherein the terminals of the shielded connector are electrically connected to the at least one passive electrical sensor; and wherein the connector cable comprises: - a first shielded connector with one or more terminals for connection with the at least one shielded connector of the electricity conducting element; - a second shielded connector with one or more terminals for connection with an appliance or a further connector cable; and characterized in that, - the connector cable further comprises electrical components adapted to process low voltage signals of the at least one passive electrical sensor, wherein the electrical components are arranged as closely as possible to the first shielded connector and electrically connected to the terminals of the first shielded connector, and wherein the electrical components are arranged at a distance from the second shielded connector and are electrically connected via a cable to the terminals of the second shielded connector. - a body of insulating material; - an electrical conductor extending through the body; - at least one passive electrical sensor, such as a Rogowski coil or the primary part of a capacitive voltage divider, embedded or integrated in the insulating material of the body, - at least one shielded connector with one or more terminals arranged on the outer surface of the body and wherein the terminals of the shielded connector are electrically connected to the at least one passive electrical sensor; and wherein the connector cable comprises: - a first shielded connector with one or more terminals for connection with the at least one shielded connector of the electricity conducting element; - a second shielded connector with one or more terminals for connection with an appliance or a further connector cable; and - a first shielded connector with one or more terminals for connection with the at least one shielded connector of the electricity conducting element; - a second shielded connector with one or more terminals for connection with an appliance or a further connector cable; and - the connector cable further comprises electrical components adapted to process low voltage signals of the at least one passive electrical sensor, wherein the electrical components are arranged as closely as possible to the first shielded connector and electrically connected to the terminals of the first shielded connector, and wherein the electrical components are arranged at a distance from the second shielded connector and are electrically connected via a cable to the terminals of the second shielded connector.
A method for distributed inter-cell interference coordination in a communications system including at least a first femtocell system and one or more other femtocell systems, the method comprising: at one or more other femtocell systems, sending channel quality information γ i of a subordinate device communicating with the one or more other femtocell systems to the first femtocell system; receiving the channel quality information γ i of one or more of other femtocell systems at the first femtocell system; estimating an influence of a use of a resource on the communications system at the first femtocell system according to the channel quality information γ i received from one or more other femtocell systems; and determining, based on the result of the estimating, at the first femtocell system whether to use the resource. at one or more other femtocell systems, sending channel quality information γ i of a subordinate device communicating with the one or more other femtocell systems to the first femtocell system; receiving the channel quality information γ i of one or more of other femtocell systems at the first femtocell system; estimating an influence of a use of a resource on the communications system at the first femtocell system according to the channel quality information γ i received from one or more other femtocell systems; and determining, based on the result of the estimating, at the first femtocell system whether to use the resource. of a subordinate device communicating with the one or more other femtocell systems to the first femtocell system; receiving the channel quality information γ i of one or more of other femtocell systems at the first femtocell system; estimating an influence of a use of a resource on the communications system at the first femtocell system according to the channel quality information γ i received from one or more other femtocell systems; and determining, based on the result of the estimating, at the first femtocell system whether to use the resource.
Device for severing a designated region of a glass ribbon produced continuously on a conveyor belt, said device having a scoring means, a crusher roller and lock rollers and shearing-off and breaking-off means, in an arrangement having the following movement sequence: a) a line which marks the severing of the designated region of the glass ribbon is scored on the continuous glass ribbon by a marking device, b) when the scored line on the continuous glass ribbon reaches the crusher roller, the front lock roller which follows the crusher roller is moved forward by a servomotor in the running direction of the glass ribbon and, at the same time, the rear lock roller which is connected in terms of function to said front lock roller with respect to its rotational axis is moved downward by a servomotor, c) if the scored line overshoots the region of the highest point of the crusher roller, a servomotor-driven shearing-off roller presses from above onto the part of the glass ribbon which protrudes freely over the crusher roller, and breaks said part off, d) after the glass piece which is broken off has dropped, the front lock roller and the rear lock roller are folded back again into the conveyor belt by the respective servomotor. a) a line which marks the severing of the designated region of the glass ribbon is scored on the continuous glass ribbon by a marking device, b) when the scored line on the continuous glass ribbon reaches the crusher roller, the front lock roller which follows the crusher roller is moved forward by a servomotor in the running direction of the glass ribbon and, at the same time, the rear lock roller which is connected in terms of function to said front lock roller with respect to its rotational axis is moved downward by a servomotor, c) if the scored line overshoots the region of the highest point of the crusher roller, a servomotor-driven shearing-off roller presses from above onto the part of the glass ribbon which protrudes freely over the crusher roller, and breaks said part off, d) after the glass piece which is broken off has dropped, the front lock roller and the rear lock roller are folded back again into the conveyor belt by the respective servomotor.
A rotor assembly, comprising: a transmission; a mast; a rotor blade a cuff and a yoke rotatably attached to the mast, the yoke being operably associated with the rotor blade; a first device and a second device; and a spindle disposed between and attached to the first device and the second device; wherein the rotor blade attaches to the spindle; wherein the first device is configured to allow transverse movement of the rotor blade about a chord axis and rotational movement about a pitch-change axis; and wherein the second device is configured to allow a rotational movement of the rotor blade about the pitch-change axis, wherein both the first device and the second device are attached directly to the yoke; characterized in that: the cuff is directly attached to the spindle and in that: the transmission is configured to pivot, which in turn pivots the mast and the rotor assembly. a transmission; a mast; a rotor blade a cuff and a yoke rotatably attached to the mast, the yoke being operably associated with the rotor blade; a first device and a second device; and a spindle disposed between and attached to the first device and the second device; wherein the rotor blade attaches to the spindle; wherein the first device is configured to allow transverse movement of the rotor blade about a chord axis and rotational movement about a pitch-change axis; and wherein the second device is configured to allow a rotational movement of the rotor blade about the pitch-change axis, wherein both the first device and the second device are attached directly to the yoke; characterized in that: the cuff is directly attached to the spindle and in that: the transmission is configured to pivot, which in turn pivots the mast and the rotor assembly. the cuff is directly attached to the spindle and in that: the transmission is configured to pivot, which in turn pivots the mast and the rotor assembly. the transmission is configured to pivot, which in turn pivots the mast and the rotor assembly.
Chemical reactor for the heterogeneously catalysed reaction of a fluid, comprising a retaining means, through which fluid flows, for particles (80, 100), characterized in that the side of the retaining means arranged upstream in terms of the direction of flow of the fluid comprises wire mesh knitted fabric on which catalyst particles are arranged or on which a layer of particles inert to the fluid is arranged, and catalyst particles are arranged on this layer, wherein the wire mesh knitted fabric is arranged on a support and the support comprises continuous openings in the direction of flow of the fluid, and wherein the average clear mesh size of the wire mesh is less than the mean particle size x 50.3 of the particles (80, 100).
Method for controlling the rotational rate of a compressor, which is to be operated at a rotational rate when in operation with a mean value that is at least as high as a minimum mean value for ensuring the functionality of the compressor, wherein the method comprises the following steps: - Determination of a temporally variable target rotational rate of the compressor that is necessary for obtaining an output performance that varies over time; - Determination of a temporal mean of the temporally variable target rotational rate; and - Raising a lower rotational rate limit, if the temporal mean of the variable target rotational rate is lower than the minimum mean value for the rotational rate of the compressor. - Determination of a temporally variable target rotational rate of the compressor that is necessary for obtaining an output performance that varies over time; - Determination of a temporal mean of the temporally variable target rotational rate; and - Raising a lower rotational rate limit, if the temporal mean of the variable target rotational rate is lower than the minimum mean value for the rotational rate of the compressor.
A method for determining effective electrode area and/or extent of electrode fouling in an electrochemical system containing a sample, wherein the electrochemical system includes an electrode having a surface, wherein the surface includes a contact portion and a non-contact portion, wherein the contact portion of the electrode is in electrolytic contact with the sample, and the non-contact portion of the electrode is not in contact with the sample, characterized in that the method comprises the steps of applying a small amplitude high frequency time-varying potential stimulus to the system to generate a signal response from the sample that has an approximately linear relationship with the applied potential, measuring the signal response, computing capacitance information from the signal response from the sample that can be approximated by a linear relationship with the applied potential, and determining a value indicative of effective electrode area and/or extent of electrode fouling from the capacitance information.
An in vitro method for identifying a genetic predisposition to a myeloproliferative neoplasm in a subject in need thereof, said method comprising the step of analyzing the copy number of the genomic region found between position 14q32.13 and 14q32.2 on chromosome 14q32, said region having the SEQ ID NO:1, or of a fragment thereof containing at least 10 consecutive nucleotides of SEQ ID NO:1, in a biological sample from said subject, wherein the detection of at least two copy numbers of said genomic region or of said fragment indicates that said subject develops or is predisposed to developing a MPN.