mhurhangee/ep-ind-claims huggingface dataset:
Firing range for example for the target practice of a user, comprising: - a firing area, suitable to accommodate the user; - a dynamic sound suppression apparatus comprising: a) a sound detector device of the sound caused by the shots; b) a suppression sound player device, operatively connected to the detector device, suitable to generate a suppression sound so as to interfere with the sound caused by the shots to dampen such at least partially, and suitable to operate in interference in the area of the firing range and in its surrounding area; c) analysis and processing means; the firing range is characterized by the fact that the analysis and processing means comprise memorization means storing data such as sounds, or audio tracks, or sound spectra and comprising a data bank of sounds of the firearms being fired, or of the sound imprints of the sound of a shot; and the firing range comprises an embankment, distanced in relation to the firing area in the direction in which the user aims, suitable to form an obstacle to the bullets exploded by the user. - a firing area, suitable to accommodate the user; - a dynamic sound suppression apparatus comprising: a) a sound detector device of the sound caused by the shots; b) a suppression sound player device, operatively connected to the detector device, suitable to generate a suppression sound so as to interfere with the sound caused by the shots to dampen such at least partially, and suitable to operate in interference in the area of the firing range and in its surrounding area; c) analysis and processing means; the firing range is characterized by the fact that the analysis and processing means comprise memorization means storing data such as sounds, or audio tracks, or sound spectra and comprising a data bank of sounds of the firearms being fired, or of the sound imprints of the sound of a shot; and the firing range comprises an embankment, distanced in relation to the firing area in the direction in which the user aims, suitable to form an obstacle to the bullets exploded by the user. a) a sound detector device of the sound caused by the shots; b) a suppression sound player device, operatively connected to the detector device, suitable to generate a suppression sound so as to interfere with the sound caused by the shots to dampen such at least partially, and suitable to operate in interference in the area of the firing range and in its surrounding area; c) analysis and processing means; the firing range is characterized by the fact that the analysis and processing means comprise memorization means storing data such as sounds, or audio tracks, or sound spectra and comprising a data bank of sounds of the firearms being fired, or of the sound imprints of the sound of a shot; and the firing range comprises an embankment, distanced in relation to the firing area in the direction in which the user aims, suitable to form an obstacle to the bullets exploded by the user.
An inhalation-synchronized fluid dispenser device comprising a body provided with a mouthpiece, a fluid reservoir containing a fluid and a propellant gas being mounted to slide axially relative to said body, a metering valve including a valve member being assembled by means of a fastener element, such as a crimping cap, on said reservoir for selectively dispensing the fluid, said device further comprising: • a blocking element that pivots about a pivot axis B between a blocking position in which said metering valve cannot be actuated, and an actuation position in which said metering valve can be actuated, • a trigger element that pivots about a pivot axis C between a locking position in which it blocks said blocking element in its blocking position, and a release position in which it does not block said blocking element, and • an inhalation-controlled trigger system including an inhalation-sensitive member (60, 61) that is deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (60, 61) co-operating with said trigger element, so that when said inhalation-sensitive member (60, 61) is deformed and/or moved, it moves and/or deforms said trigger element towards its release position, thereby making it possible to move and/or deform said blocking element from its blocking position towards its actuation position, said device comprising an actuator member that is mounted to move axially, in particular in sliding, in said body between a rest position and a primed position, and a spring characterized in that said spring is arranged between said actuator member and said reservoir or an element (900; 950) that is secured to said reservoir, so that when said actuator member moves towards its primed position, said spring is compressed, so as to transmit an axial force to said reservoir, said axial force extending along an axis Y that is perpendicular to said pivot axis B of said blocking element, said axis Y being spaced apart from said pivot axis B by a distance d that is not zero, said distance d being less than 2.5 mm, advantageously less than 1 mm, preferably about 0.4 mm. • a blocking element that pivots about a pivot axis B between a blocking position in which said metering valve cannot be actuated, and an actuation position in which said metering valve can be actuated, • a trigger element that pivots about a pivot axis C between a locking position in which it blocks said blocking element in its blocking position, and a release position in which it does not block said blocking element, and • an inhalation-controlled trigger system including an inhalation-sensitive member (60, 61) that is deformable and/or movable under the effect of inhaling, said inhalation-sensitive member (60, 61) co-operating with said trigger element, so that when said inhalation-sensitive member (60, 61) is deformed and/or moved, it moves and/or deforms said trigger element towards its release position, thereby making it possible to move and/or deform said blocking element from its blocking position towards its actuation position,
A method of impulsive noise rejection in an OFDM receiver, the method comprising: measuring a noise value for a single OFDM symbol (302, 402, 502, 602, 702); comparing the measured noise value for the single OFDM symbol to a threshold value (304, 404, 504, 604, 704); and in response to the comparison indicating that the measured noise value exceeds the threshold value, modifying a channel state information value for the single OFDM symbol (306, 406, 506, 606, 706); and in response to the comparison indicating that the measured value does not exceed the threshold value, updating the threshold value (408, 508, 608, 708), characterized in that updating the threshold value comprises either: updating a short-term average noise value using the measured value (410, 510, 610, 710) and calculating an updated threshold value by setting it to a value proportional to the updated short-term average noise value (412, 512, 612, 712); or calculating an expected noise value by extrapolating from a plurality of previously measured values and calculating an updated threshold value using the expected noise value. measuring a noise value for a single OFDM symbol (302, 402, 502, 602, 702); comparing the measured noise value for the single OFDM symbol to a threshold value (304, 404, 504, 604, 704); and in response to the comparison indicating that the measured noise value exceeds the threshold value, modifying a channel state information value for the single OFDM symbol (306, 406, 506, 606, 706); and in response to the comparison indicating that the measured value does not exceed the threshold value, updating the threshold value (408, 508, 608, 708), characterized in that updating the threshold value comprises either: updating a short-term average noise value using the measured value (410, 510, 610, 710) and calculating an updated threshold value by setting it to a value proportional to the updated short-term average noise value (412, 512, 612, 712); or calculating an expected noise value by extrapolating from a plurality of previously measured values and calculating an updated threshold value using the expected noise value. updating a short-term average noise value using the measured value (410, 510, 610, 710) and calculating an updated threshold value by setting it to a value proportional to the updated short-term average noise value (412, 512, 612, 712); or calculating an expected noise value by extrapolating from a plurality of previously measured values and calculating an updated threshold value using the expected noise value.
A composition comprising a phosphor having a formula: M 7-y M y M 12-x-y-z Si x+y+z O 25-x±3δ/2-v/2 N x±δ-z C z H v:A, wherein 0<x<12, 0≤y<1, 0<z<x, z<x+δ, 0<δ≤ 3, 0≤ v<1, and 0<x+y+z≤ 12; wherein: M is Sr; M is Li; M is Al; H is F; and A is Eu 2+ doped in the crystal structure. M is Sr; M is Li; M is Al; H is F; and A is Eu 2+ doped in the crystal structure.
A compound for its use in the treatment of cancer by inhibiting endo-exonuclease activity having the formula: wherein: R1 is selected from the group consisting of isopropyl, isobutyl and phenyl; R2 is selected from the group consisting of: isopropyl, isobutyl and phenyl; and R5 is (CH 2) n, and wherein n is 5. R1 is selected from the group consisting of isopropyl, isobutyl and phenyl; R2 is selected from the group consisting of: isopropyl, isobutyl and phenyl; and R5 is (CH 2) n, and wherein n is 5.
A mobile cleaning robot, comprising: a chassis having a forward portion and an aft portion; a blower affixed to the chassis; a bin supported by the chassis and configured to receive airflow from the blower, the chassis enabling evacuation of the bin through a bottom of the robot, the bin comprising a top, a bottom, a sidewall, and an internal barrier, the bin defining a first volume and a second volume separated by the internal barrier; and a filter unit supported by the internal barrier and removably disposed in an airflow path between the first volume that includes an intake port in the bin and the second volume that includes an exhaust port in the bin, further comprising: a handle hingedly attached to the top of the bin, the handle extending above the top in an extended state and being disposed in a recess of the top of the bin during a stored state; and a bin emptying button disposed in the recess, the handle configured to cover the button during the stored state. a chassis having a forward portion and an aft portion; a blower affixed to the chassis; a bin supported by the chassis and configured to receive airflow from the blower, the chassis enabling evacuation of the bin through a bottom of the robot, the bin comprising a top, a bottom, a sidewall, and an internal barrier, the bin defining a first volume and a second volume separated by the internal barrier; and a filter unit supported by the internal barrier and removably disposed in an airflow path between the first volume that includes an intake port in the bin and the second volume that includes an exhaust port in the bin, further comprising: a handle hingedly attached to the top of the bin, the handle extending above the top in an extended state and being disposed in a recess of the top of the bin during a stored state; and a bin emptying button disposed in the recess, the handle configured to cover the button during the stored state. a handle hingedly attached to the top of the bin, the handle extending above the top in an extended state and being disposed in a recess of the top of the bin during a stored state; and a bin emptying button disposed in the recess, the handle configured to cover the button during the stored state.
Elongate flexible container for use as a core or base of a dam, a quay, a bank reinforcement, an onshore dune, a jetty, a breakwater, a tidal energy enclosure structure, or an off shore storm surge protection structure, or for filling holes or trenches, e.g. in the bed of a waterway, said container comprising; - at least one filling orifice for filling the container with a filler material, said filler material for example comprising loose or little coherent solid material, such as sand or other ground material, or any other granular material, - at least one overflow orifice which is normally closed and which is arranged to be opened when a pressure of the filler material in the container exceeds a predetermined value, and wherein the at least one overflow orifice comprises a closing member for closing the respective orifice, wherein said closing member is movable between a steady state position in which the closing member substantially closes the orifice and a pressure relief position in which the closing member at least partially opens the orifice, and wherein said closing member is deformable and said closing member comprises a deformable outflow conduit which is connected to the overflow orifice, characterized in that said container comprises a biasing member for biasing said closing member to its steady state position, wherein said biasing member comprises at least one elastic biasing element arranged to cooperate with said closing member, and in that the at least one elastic biasing element is arranged to deform at least part of the outflow conduit so as to reduce a cross-sectional area of the outflow conduit to substantially zero. - at least one filling orifice for filling the container with a filler material, said filler material for example comprising loose or little coherent solid material, such as sand or other ground material, or any other granular material, - at least one overflow orifice which is normally closed and which is arranged to be opened when a pressure of the filler material in the container exceeds a predetermined value, and wherein the at least one overflow orifice comprises a closing member for closing the respective orifice,
A brush head comprising: a plurality of bristle tufts, each of which comprises a plurality of bristle strands having a free end and a proximal end; a plurality of retention rings each comprising an upper portion, a lower portion, an exterior wall and an interior wall, and each configured to receive the proximal end of at least one of the plurality of bristle tufts, wherein at least one of the plurality of retention rings comprises a transverse projection (71, 72) extending from the exterior and/or interior wall of the retention ring; and an elastomeric matrix comprising at least a portion of each of the plurality of retention rings and the proximal end of each of the plurality of bristle tufts. a plurality of bristle tufts, each of which comprises a plurality of bristle strands having a free end and a proximal end; a plurality of retention rings each comprising an upper portion, a lower portion, an exterior wall and an interior wall, and each configured to receive the proximal end of at least one of the plurality of bristle tufts, wherein at least one of the plurality of retention rings comprises a transverse projection (71, 72) extending from the exterior and/or interior wall of the retention ring; and an elastomeric matrix comprising at least a portion of each of the plurality of retention rings and the proximal end of each of the plurality of bristle tufts.
A method of forming an iron hydroxypyrone compound comprising reacting a hydroxypyrone with a non-carboxylate iron salt in an aqueous solution and precipitating the iron hydroxypyrone compound from the aqueous solution having a pH of greater than 7, wherein the hydroxypyrone is a 3-hydroxy-4-pyrone or a 3-hydroxy-4-pyrone in which one or more of the hydrogen atoms attached to the ring carbon atoms are replaced by an aliphatic hydrocarbon group having 1 to 6 carbon atoms.
A condensate discharge device for compressed gas systems with a housing which comprises a condensate collecting chamber, which can be connected to the compressed gas system by means of a condensate feed, and a condensate drain, which can be closed by means of a valve assembly, a tubular body protruding into the condensate collecting chamber for accommodating at least one electronic filling level measuring device, by means of which the condensate filling level in the condensate collecting chamber can be detected, wherein the housing can be mounted in at least a first, vertical mounting position and a second, horizontal mounting position and the longitudinal axis of the tubular body runs obliquely with respect to the condensate feed direction, characterized in that from a certain condensate filling level, a condensate-free cavity in a connecting region of the tubular body with the condensate collecting chamber is formed in the condensate collecting chamber during operation in at least the first and second mounting position by means of at least one barrier wall.
A data transmission method comprising: receiving, by a terminal device, from a network device, first Downlink Control Information, DCI, and second DCI in a Physical Downlink Control Channel, PDCCH, wherein the first DCI and the second DCI have different priorities, the first DCI is configured for scheduling the terminal device to receive a first Physical Downlink Shared Channel, PDSCH, transmitted by using a first Transmission Time Interval, TTI, on a target carrier, the second DCI is configured for scheduling the terminal device to receive a second PDSCH transmitted by using a second TTI on the target carrier, the first TTI is smaller than the second TTI, and time resources of the first PDSCH and the second PDSCH at least partially overlap; determining, by the terminal device, a priority relationship between the first DCI and the second DCI; sending, by the terminal device feedback information to the network device, and receiving, by the terminal device, from the network device, the first PDSCH or the second PDSCH on the target carrier according to the priority relationship between the first DCI and the second DCI. receiving, by a terminal device, from a network device, first Downlink Control Information, DCI, and second DCI in a Physical Downlink Control Channel, PDCCH, wherein the first DCI and the second DCI have different priorities, the first DCI is configured for scheduling the terminal device to receive a first Physical Downlink Shared Channel, PDSCH, transmitted by using a first Transmission Time Interval, TTI, on a target carrier, the second DCI is configured for scheduling the terminal device to receive a second PDSCH transmitted by using a second TTI on the target carrier, the first TTI is smaller than the second TTI, and time resources of the first PDSCH and the second PDSCH at least partially overlap; determining, by the terminal device, a priority relationship between the first DCI and the second DCI; sending, by the terminal device feedback information to the network device, and receiving, by the terminal device, from the network device, the first PDSCH or the second PDSCH on the target carrier according to the priority relationship between the first DCI and the second DCI.
Live Holter is comprising a holter with a control module and/or with imaging module and optionally an evaluating block wherein the holter comprises a chest belt (749"), a front end unit, a monitor of heart signals (349"), a communication unit, and the live holter is adapted for sensing analog heart signals from the chest belt (749") and processing the heart signals in the front end unit into data sent to the monitor of heart signals (349 ") and from the monitor of heart signals (349") to the communication unit for transmission for Holter evaluation in at least one of: the control module, the imaging module, the evaluating block and for transmission for displaying live or from record on at least one of: the control module, the imaging module, the evaluating block, and the evaluating block is comprising server and further comprising operator's PC and/or participant's PC, wherein the monitor (349") of heart signals comprises a memory for data recording of heart signals, advantageously formed by a SD card, and the communication unit communicates locally with the control module, for displaying on a display of control module and/or the communication unit communicates locally with the imaging module and the local displaying is for patient and/or medical staff, wherein the holter is further adapted for long distance transmission by means of the communication unit through a network of mobile operator and/or through a WiFi to evaluation block for displaying to medical staff and for permanent monitoring of monitored data live or monitoring of recorded data. is comprising a holter with a control module and/or with imaging module and optionally an evaluating block wherein the holter comprises a chest belt (749"), a front end unit, a monitor of heart signals (349"), a communication unit, and the live holter is adapted for sensing analog heart signals from the chest belt (749") and processing the heart signals in the front end unit into data sent to the monitor of heart signals (349 ") and from the monitor of heart signals (349") to the communication unit for transmission for Holter evaluation in at least one of: the control module, the imaging module, the evaluating block and for transmission for displaying live or from record on at least one of: the control module, the imaging module, the evaluating block, and the evaluating block is comprising server and further comprising operator's PC and/or participant's PC, wherein the monitor (349") of heart signals comprises a memory for data recording of heart signals, advantageously formed by a SD card, and the communication unit communicates locally with the control module, for displaying on a display of control module and/or the communication unit communicates locally with the imaging module and the local displaying is for patient and/or medical staff, wherein the holter is further adapted for long distance transmission by means of the communication unit through a network of mobile operator and/or through a WiFi to evaluation block for displaying to medical staff and for permanent monitoring of monitored data live or monitoring of recorded data.
A data processing method in a receiver of a communication system, the method characterized by comprising: creating (202, 302) at least one channel matrix assuming predetermined interfering signals as a part of a desired signal; forming at least one block-diagonalized matrix either by dividing the at least one channel matrix into multiple sub-matrices, approximating the sub-matrices as circulant matrixes, diagonalizing the approximated sub-matrices by using a transformation matrix, and forming the at least one block-diagonalized matrix using the diagonalized approximated sub-matrices, or by creating at least one block matrix by using a product of the at least one channel matrix, determining sub-matrices of the at least one block matrix, approximating the sub-matrices as circulant matrixes, and diagonalizing the approximated sub-matrices for generating the at least one block-diagonalized matrix; inverting (210, 308) the at least one block-diagonalized matrix by performing M matrix inversions of size 2x2, where M is the dimension of the sub-matrices; and generating (212, 310) channel equalizer coefficients by using at least one inverted block-diagonalized matrix. creating (202, 302) at least one channel matrix assuming predetermined interfering signals as a part of a desired signal; forming at least one block-diagonalized matrix either by dividing the at least one channel matrix into multiple sub-matrices, approximating the sub-matrices as circulant matrixes, diagonalizing the approximated sub-matrices by using a transformation matrix, and forming the at least one block-diagonalized matrix using the diagonalized approximated sub-matrices, or by creating at least one block matrix by using a product of the at least one channel matrix, determining sub-matrices of the at least one block matrix, approximating the sub-matrices as circulant matrixes, and diagonalizing the approximated sub-matrices for generating the at least one block-diagonalized matrix; inverting (210, 308) the at least one block-diagonalized matrix by performing M matrix inversions of size 2x2, where M is the dimension of the sub-matrices; and generating (212, 310) channel equalizer coefficients by using at least one inverted block-diagonalized matrix.