mhurhangee/ep-ind-claims huggingface dataset:
A method for the continuous detection of impacts on pipelines for the fluids transportation which comprises the following items: - detecting the arrival of first acoustic waves (14, 15) generated by an impact which has taken place in a section subject to length (x) of a pipeline through a first sensor (11, 12) installed in correspondence with an end of said section subject to length (x); - detecting the arrival of second acoustic waves (14, 15) generated by said impact which has taken place in said section subject to length (x) of said pipeline through a second sensor (11, 12) installed in correspondence with an end of said section subject to length (x); - determining the time difference (Δt) between the arrivals of said first and second acoustic waves (14, 15); - localizing said impact by identifying its position along said pipeline on the basis of said determined time difference (Δt); characterized in that said first acoustic wave propagating in a first acoustic wave transmission phase along the mantle of the pipeline and said second acoustic wave propagates in a second acoustic wave transmission phase through the fluid inside the pipeline, said second acoustic waves having different wave characteristics with respect to said first acoustic waves, said first and second sensor (11, 12) being installed in correspondence with a same end of said section subject to detection (x). - detecting the arrival of first acoustic waves (14, 15) generated by an impact which has taken place in a section subject to length (x) of a pipeline through a first sensor (11, 12) installed in correspondence with an end of said section subject to length (x); - detecting the arrival of second acoustic waves (14, 15) generated by said impact which has taken place in said section subject to length (x) of said pipeline through a second sensor (11, 12) installed in correspondence with an end of said section subject to length (x); - determining the time difference (Δt) between the arrivals of said first and second acoustic waves (14, 15); - localizing said impact by identifying its position along said pipeline on the basis of said determined time difference (Δt);
A device for adjustment of pressure in tires, comprising a chamber with shape memory, and a valve comprising a three-way valve with inputs interconnected with the external environment and the tire internal space, where one input is fitted with at least one-way valve, a next input is connected to the chamber with shape memory, and a last input is interconnected with a closure element, wherein one input of the three-way valve fitted with at least one-way valve is interconnected with the external environment, the next input connected to the chamber with shape memory is interconnected with the tire internal space by means of the chamber, and the last input with a closure element is interconnected with the tire internal space, the closure element comprises an element with reference pressure and/or spring and/or membrane and/or piston and/or electronic element for closing the input of the three-way valve.
A method for controlling activation of at least one terminal in a machine-type communication application using a wireless access network, the wireless access network comprising a number of location areas, each of the location areas comprising a plurality of cells, the terminal having been assigned an identifier, the method comprising the steps of: - receiving at an activation control system a location identifier from a location provider, the location identifier indicating a subset of cells of at least one of the location areas; - controlling activation of the at least one terminal by transmitting at least one broadcast message on at least one cell broadcast channel in the indicated cells of the subset, wherein the broadcast message contains the identifier or identifier part assigned to the at least one terminal. - receiving at an activation control system a location identifier from a location provider, the location identifier indicating a subset of cells of at least one of the location areas; - controlling activation of the at least one terminal by transmitting at least one broadcast message on at least one cell broadcast channel in the indicated cells of the subset, wherein the broadcast message contains the identifier or identifier part assigned to the at least one terminal.
A sound-absorbing material comprising: a nonwoven fabric comprising an amount of about 30 wt% to about 100 wt% of a heat-resistant fiber; and a binder impregnated in the same layer as the nonwoven fabric and maintaining a three-dimensional shape inside the nonwoven fabric, wherein the content of the binder is 30 parts to 150 parts by weight, based on 100 parts by weight of the nonwoven fabric, and wherein micro cavities having a size in a range of about 1 μm to about 100 μm are formed inside a nonwoven fabric layer and formed by fibers which may be regularly or irregularly arranged with a distance therebetween in a range of about 0.1 μm to about 500 μm inside the nonwoven fabric layer, wherein the binder is a thermosetting resin. a nonwoven fabric comprising an amount of about 30 wt% to about 100 wt% of a heat-resistant fiber; and a binder impregnated in the same layer as the nonwoven fabric and maintaining a three-dimensional shape inside the nonwoven fabric, wherein the content of the binder is 30 parts to 150 parts by weight, based on 100 parts by weight of the nonwoven fabric, and wherein micro cavities having a size in a range of about 1 μm to about 100 μm are formed inside a nonwoven fabric layer and formed by fibers which may be regularly or irregularly arranged with a distance therebetween in a range of about 0.1 μm to about 500 μm inside the nonwoven fabric layer, wherein the binder is a thermosetting resin.
Inorganic, halogen-free flameproofing agent comprising modified, rehydrated red mud (MR2S) with a mineral composition of - 10 to 50 % by weight of iron compounds, - 12 to 35 % by weight of aluminium compounds, - 5 to 17 % by weight of silicon compounds, - 2 to 21 % by weight of TiO 2, - 0.5 to 6 % by weight of calcium compounds, wherein compounds of iron have a hydroxide and oxide hydoxide fraction of greater than/equal to 50 % by weight, preferably greater than/equal to 80 % by weight in relation to the oxide fraction of the iron compounds, and wherein the compounds of aluminium have a hydroxide and oxide hydroxide fraction of greater than/equal to 50 % by weight, preferably greater than/equal to 80 % by weight in relation to the oxide fraction of the aluminium compounds. - 10 to 50 % by weight of iron compounds, - 12 to 35 % by weight of aluminium compounds, - 5 to 17 % by weight of silicon compounds, - 2 to 21 % by weight of TiO 2, - 0.5 to 6 % by weight of calcium compounds,
An organ retention device, comprising: a biologically compatible flexible barrier configured to restrain one or more organs; a first anchor string extending from a first connection region (61,61a) of the flexible barrier; a second anchor string extending from a second connection region (61,61a) of the flexible barrier, wherein the first and second connection regions (61, 61a) are proximate two adjacent vertices along a top peripheral edge of the flexible barrier; and at least one expansion element coupled to the flexible barrier at a weighted peripheral region proximal to or at a bottom peripheral edge opposite the top peripheral edge to expand the flexible barrier generally perpendicularly to the top peripheral edge, wherein the at least one expansion element comprises supplementary weighting along the weighted peripheral region of the flexible barrier and spaced from the top peripheral edge to cause the weighted peripheral region to hang down from the top peripheral edge when the first connection region (61, 61a) and the second connection region (61, 61a) are held apart in tension. a biologically compatible flexible barrier configured to restrain one or more organs; a first anchor string extending from a first connection region (61,61a) of the flexible barrier; a second anchor string extending from a second connection region (61,61a) of the flexible barrier, wherein the first and second connection regions (61, 61a) are proximate two adjacent vertices along a top peripheral edge of the flexible barrier; and at least one expansion element coupled to the flexible barrier at a weighted peripheral region proximal to or at a bottom peripheral edge opposite the top peripheral edge to expand the flexible barrier generally perpendicularly to the top peripheral edge, wherein the at least one expansion element comprises supplementary weighting along the weighted peripheral region of the flexible barrier and spaced from the top peripheral edge to cause the weighted peripheral region to hang down from the top peripheral edge when the first connection region (61, 61a) and the second connection region (61, 61a) are held apart in tension.
A method for tracking an interventional medical device in a patient, comprising: transmitting, by an imaging probe external to the patient, imaging beams from the imaging probe to the interventional medical device in the patient; determining, based on a response to the imaging beams received from a sensor on the interventional medical device, whether a signal-to-noise ratio in the response is equal to or below a predetermined threshold; performing, if the signal-to-noise ratio in the response is equal to or below the predetermined threshold, the following steps: interleaving, by the imaging probe, a pulse sequence of imaging beams and tracking beams to obtain an interleaved pulse sequence; transmitting, from the imaging probe to the interventional medical device in the patient, the interleaved pulse sequence, and determining, based on a response to the tracking beams received from the sensor on the interventional medical device, a location of the sensor in the patient; else, if the signal-to-noise ratio in the response is above the predetermined threshold, using the imaging beams for tracking purposes in a one-way configuration. transmitting, by an imaging probe external to the patient, imaging beams from the imaging probe to the interventional medical device in the patient; determining, based on a response to the imaging beams received from a sensor on the interventional medical device, whether a signal-to-noise ratio in the response is equal to or below a predetermined threshold; performing, if the signal-to-noise ratio in the response is equal to or below the predetermined threshold, the following steps: interleaving, by the imaging probe, a pulse sequence of imaging beams and tracking beams to obtain an interleaved pulse sequence; transmitting, from the imaging probe to the interventional medical device in the patient, the interleaved pulse sequence, and determining, based on a response to the tracking beams received from the sensor on the interventional medical device, a location of the sensor in the patient; else, if the signal-to-noise ratio in the response is above the predetermined threshold, using the imaging beams for tracking purposes in a one-way configuration. interleaving, by the imaging probe, a pulse sequence of imaging beams and tracking beams to obtain an interleaved pulse sequence; transmitting, from the imaging probe to the interventional medical device in the patient, the interleaved pulse sequence, and determining, based on a response to the tracking beams received from the sensor on the interventional medical device, a location of the sensor in the patient; else, if the signal-to-noise ratio in the response is above the predetermined threshold, using the imaging beams for tracking purposes in a one-way configuration.
A multi-pole or single-pole switch for low-voltage systems comprising: - an outer casing containing for each pole at least one fixed contact and at least one mobile contact, which can be coupled to/uncoupled from one another; and - a mobile element, defined by a shaped body comprising at least one seat for each pole of said switch, said seat being designed to house at least one mobile contact of a corresponding pole; - a control mechanism (60, 61) operatively connected to said mobile element to enable its movement, said control mechanism (60, 61) comprising mechanical means supported by a structural part connected to said outer casing; characterized in that it comprises supporting means constrained to said structural part of said control mechanism (60, 61) and operatively connected to said mobile element through hinge connection means to provide a centre of rotation for said mobile element. - an outer casing containing for each pole at least one fixed contact and at least one mobile contact, which can be coupled to/uncoupled from one another; and - a mobile element, defined by a shaped body comprising at least one seat for each pole of said switch, said seat being designed to house at least one mobile contact of a corresponding pole; - a control mechanism (60, 61) operatively connected to said mobile element to enable its movement, said control mechanism (60, 61) comprising mechanical means supported by a structural part connected to said outer casing;
A rechargeable battery pack comprising: a plurality of unit battery cells; a cell holder arranged to accommodate the unit battery cells; a first case arranged to accommodate the cell holder, the first case having an opening; a second case (40, 240, 340) arranged to be combined with the first case to cover the opening of the first case so that the first case and the second case cover the cell holder and the unit battery cells, wherein the first case is separable from the second case; a tab connected to the unit battery cells, the tab having an end portion protruding out of a through-hole of the second case so as to be bent outside of the second case and disposed on an outer surface of the second case; and a terminal (60, 260, 360, 460) disposed on the bent end portion of the tab and electrically connected to the bent end portion of the tab and overlapping therewith, the terminal being combined with the second case to cover the through-hole; wherein the tab and the terminal surface contact each other outside of the second case. a plurality of unit battery cells; a cell holder arranged to accommodate the unit battery cells; a first case arranged to accommodate the cell holder, the first case having an opening; a second case (40, 240, 340) arranged to be combined with the first case to cover the opening of the first case so that the first case and the second case cover the cell holder and the unit battery cells, wherein the first case is separable from the second case; a tab connected to the unit battery cells, the tab having an end portion protruding out of a through-hole of the second case so as to be bent outside of the second case and disposed on an outer surface of the second case; and a terminal (60, 260, 360, 460) disposed on the bent end portion of the tab and electrically connected to the bent end portion of the tab and overlapping therewith, the terminal being combined with the second case to cover the through-hole; wherein the tab and the terminal surface contact each other outside of the second case.
Baseplate for a shoe, in particular a sports shoe, wherein the baseplate is suitable to be inserted exchangeable into a shoe upper, wherein the baseplate is made of polyamide, polyether-block-amide, PEBA or thermoplastic polyurethane, TPU, and wherein the baseplate comprises: a. a plate-shaped, stiff and rigid body, which is suitable to provide stability to the shoe upper; b. a plurality of tread elements (13, 13a, 13b, 13c, 13d), which are suitable to protrude through respective openings in a bottom side of the shoe upper, if the baseplate is inserted into the shoe upper, c. wherein the tread elements (13, 13a, 13b, 13c, 13d) are formed in one piece with the body. a. a plate-shaped, stiff and rigid body, which is suitable to provide stability to the shoe upper; b. a plurality of tread elements (13, 13a, 13b, 13c, 13d), which are suitable to protrude through respective openings in a bottom side of the shoe upper, if the baseplate is inserted into the shoe upper, c. wherein the tread elements (13, 13a, 13b, 13c, 13d) are formed in one piece with the body.
A sensing arrangement for a textile processing machine intended for treating separate planar textile products; wherein the sensing arrangement comprises several sensing devices for sensing a leading edge of the textile product; characterized in that the arrangement comprises a movable leading edge stopper; and the sensing arrangement comprises at least three sensing devices (S1 - S3) mounted to the movable leading edge stopper. wherein the sensing arrangement comprises several sensing devices for sensing a leading edge of the textile product; characterized in that the arrangement comprises a movable leading edge stopper; and the sensing arrangement comprises at least three sensing devices (S1 - S3) mounted to the movable leading edge stopper.
A device, comprising: one or more fluid interfacing components; a cartridge holder; a linear guide; and a cartridge in the cartridge holder, wherein the cartridge comprises a reservoir with an opening, wherein the one or more fluid interfacing components are fixed while the cartridge holder is movable along said linear guide to reversibly engage the cartridge with the fluid interfacing components, characterized in that the one or more fluid interfacing components comprise a tube that is wider than the opening of the fluid reservoir in the cartridge that makes a seal when pressed onto the cartridge in order to apply gas pressure to the reservoir and move fluid from inside the reservoir to other areas in the cartridge without directly contacting the fluid. one or more fluid interfacing components; a cartridge holder; a linear guide; and a cartridge in the cartridge holder, wherein the cartridge comprises a reservoir with an opening, wherein the one or more fluid interfacing components are fixed while the cartridge holder is movable along said linear guide to reversibly engage the cartridge with the fluid interfacing components, characterized in that the one or more fluid interfacing components comprise a tube that is wider than the opening of the fluid reservoir in the cartridge that makes a seal when pressed onto the cartridge in order to apply gas pressure to the reservoir and move fluid from inside the reservoir to other areas in the cartridge without directly contacting the fluid.
A transparent surface protection layer on the basis of synthetic resin comprising transparent solid particles, which comprise at least three different grain size fractions and encompass a Mohs hardness of at least 4, which are incorporated into the synthetic resin matrix, wherein the grain size fractions in each case encompass a monomodal grain size distribution and the transparent solid particles are present together as trimodal grain size distribution comprising a coarse fraction, a medium fraction and a fine fraction, characterized in that the coarse fraction comprises an individual or two adjacent granulations comprising the grain sizes F150 to F280 according to FEPA standard, the medium fraction comprises an individual or two adjacent granulations comprising the grain sizes F320 to F1200 according to FEPA standard, and the fine fraction comprises a granulation comprising an average grain size of d 50 of between 0.1 μm and 2 μm.
An assembly for forming a lateral wellbore, comprising: a mill having a bore and a plurality of blades (170, 171, 172); a whipstock having an inclined surface for guiding movement of the mill, the mill releasably connected to the whipstock; and a tubing disposed in the bore of the mill and the whipstock, characterised in that: two blades (171, 172) are disposed in a respective slot (131, 132) formed in the whipstock for each blade. a mill having a bore and a plurality of blades (170, 171, 172); a whipstock having an inclined surface for guiding movement of the mill, the mill releasably connected to the whipstock; and a tubing disposed in the bore of the mill and the whipstock, characterised in that: two blades (171, 172) are disposed in a respective slot (131, 132) formed in the whipstock for each blade.
An acoustic galvanic isolation device comprising a substrate capable of transmitting an acoustic wave, a first network of vibrating membrane electroacoustic transducers arranged on a first surface of the substrate, and a second network of vibrating membrane electroacoustic transducers arranged on a second opposite surface of the substrate, wherein the substrate has an effective thickness variation between the first and second surfaces along the lateral dimension of said substrate, and the acoustic wave has a frequency in the range from a high frequency f max to a low frequency f min, and the substrate has a maximum effective thickness L max and a minimum effective thickness L min selected to be such that: L max = n c 2 f min, and L min = n c 2 f max, n being an integer, and c designating the velocity of acoustic waves in the material(s) of the substrate.
A method for producing a chromium-containing multilayer coating on an object, comprising the steps of: depositing a layer of nickel-phosphorus alloy (NiP) on the object, wherein the thickness of the NiP layer is 0.05-80 μm, and wherein the NiP layers are produced by electrodeposition or electroless deposition; electroplating a chromium layer from a trivalent chromium containing bath on the object, wherein the thickness of the chromium layer deposited on the NiP layer is 0.05-20 um; repeating said steps one or more times in order to produce a multilayer coating containing two or more alternate layers of nickel-phosphorus alloy and chromium; and subjecting the coated object to one or more heat treatments, wherein the temperature in the heat treatments is 200-1000 °C, to amend the mechanical and physical properties of the coating and to produce multiphase layers containing crystalline Ni and crystalline Ni 3 P and multiphase layers containing crystalline Cr, and wherein at least one of the chromium layers is deposited next to a NiP layer and during the heat treatment at least one multiphase layer is produced that contains crystalline CrNi. depositing a layer of nickel-phosphorus alloy (NiP) on the object, wherein the thickness of the NiP layer is 0.05-80 μm, and wherein the NiP layers are produced by electrodeposition or electroless deposition; electroplating a chromium layer from a trivalent chromium containing bath on the object, wherein the thickness of the chromium layer deposited on the NiP layer is 0.05-20 um; repeating said steps one or more times in order to produce a multilayer coating containing two or more alternate layers of nickel-phosphorus alloy and chromium; and subjecting the coated object to one or more heat treatments, wherein the temperature in the heat treatments is 200-1000 °C, to amend the mechanical and physical properties of the coating and to produce multiphase layers containing crystalline Ni and crystalline Ni 3 P and multiphase layers containing crystalline Cr, and wherein at least one of the chromium layers is deposited next to a NiP layer and during the heat treatment at least one multiphase layer is produced that contains crystalline CrNi.