mhurhangee/ep-ind-claims huggingface dataset:
An electrostatic precipitator system for dry particle precipitation comprising: - a flue gas inlet for receiving a flow of flue gas, - a flue gas outlet for venting the flow of flue gas, - a flow passage extending between the flue gas inlet and the flue gas outlet, part of the flow passage being delimited by a primary collection electrode in the form of a collection plate, - a discharge electrode connected to a high voltage generator providing for an electric field being generated around the discharge electrode, when the high voltage generator is turned on, the discharge electrode being arranged inside the part of the flow passage being delimited by the collection plate, - a secondary collection electrode in the form of a grid being arranged within the collection plate, the grid comprising a mesh-like structure, such as a mesh or a plate with holes, the mesh-like structure of the grid being made of an electrically conductive material, and the grid being dimensioned, shaped and arranged such that it extends along and at a distance from the collection plate, characterized in that the electrostatic precipitator system further comprises: - an actuator for providing a force to the grid so as to move the grid relative to the collection plate, when the actuator is in operation so that, by such relative movement, some of the collected particles are mechanically removed as they detach from the layer remaining on the primary collection electrode. - a flue gas inlet for receiving a flow of flue gas, - a flue gas outlet for venting the flow of flue gas, - a flow passage extending between the flue gas inlet and the flue gas outlet, part of the flow passage being delimited by a primary collection electrode in the form of a collection plate, - a discharge electrode connected to a high voltage generator providing for an electric field being generated around the discharge electrode, when the high voltage generator is turned on, the discharge electrode being arranged inside the part of the flow passage being delimited by the collection plate, - a secondary collection electrode in the form of a grid being arranged within the collection plate, the grid comprising a mesh-like structure, such as a mesh or a plate with holes, the mesh-like structure of the grid being made of an electrically conductive material, and the grid being dimensioned, shaped and arranged such that it extends along and at a distance from the collection plate, characterized in that the electrostatic precipitator system further comprises: - an actuator for providing a force to the grid so as to move the grid relative to the collection plate, when the actuator is in operation so that, by such relative movement, some of the collected particles are mechanically removed as they detach from the layer remaining on the primary collection electrode. - an actuator for providing a force to the grid so as to move the grid relative to the collection plate, when the actuator is in operation so that, by such relative movement, some of the collected particles are mechanically removed as they detach from the layer remaining on the primary collection electrode.
A shock-absorbing platform for a portion of a balancing machine, said shock-absorbing platform comprising: a base, suitable to be constrained to the ground, a working plate suitable to support said balancing machine on a working surface, a rigid intermediate structure arranged between said base and said working plate, a plurality of shock-absorbing elements linking said intermediate structure to said base and said working plate, and characterised in that said shock-absorbing elements: - are arranged on two different horizontal planes, one for connecting said intermediate structure to said base and one for the connection of said intermediate structure to said working plate, each plane comprising four of said shock-absorbing elements arranged near the lateral edges of said intermediate structure, - said shock-absorbing elements being not coaxial. - are arranged on two different horizontal planes, one for connecting said intermediate structure to said base and one for the connection of said intermediate structure to said working plate, each plane comprising four of said shock-absorbing elements arranged near the lateral edges of said intermediate structure, - said shock-absorbing elements being not coaxial.
A medical device, comprising: a catheter body having proximal and distal ends, and defining a longitudinal axis; a distal assembly affixed to the distal end of the catheter body, the distal assembly having at least two monophasic action potential electrogram recording electrodes, each recording electrode being positioned a radial distance from the longitudinal axis in different radial directions, and each recording electrode extending radially outward a distance away from the catheter body and having a spherical recording surface; the recording electrodes having a substantially radial symmetry around the longitudinal axis; and at least one reference electrode for determining reference potential, positioned a longitudinal distance from each recording electrode; characterised in that the distal assembly further includes a dome housing having at least two sockets for receiving the recording electrodes in a fixed spatial arrangement. a catheter body having proximal and distal ends, and defining a longitudinal axis; a distal assembly affixed to the distal end of the catheter body, the distal assembly having at least two monophasic action potential electrogram recording electrodes, each recording electrode being positioned a radial distance from the longitudinal axis in different radial directions, and each recording electrode extending radially outward a distance away from the catheter body and having a spherical recording surface; the recording electrodes having a substantially radial symmetry around the longitudinal axis; and at least one reference electrode for determining reference potential, positioned a longitudinal distance from each recording electrode; characterised in that the distal assembly further includes a dome housing having at least two sockets for receiving the recording electrodes in a fixed spatial arrangement.
A mode control waveguide-type laser device, comprising: pumping light means; a laser medium which is planar and has a waveguide structure in a thickness direction of a cross section perpendicular to an optical axis, and which has a length in the optical axis direction and a width in a lateral direction perpendicular to the optical axis and the thickness direction, for generating gain for laser light, wherein excitation light exiting from the pumping light means enters the laser medium; a cladding comprising an optical material and being bonded onto one surface of the laser medium; and a heat sink bonded via the cladding and a bonding agent onto the one surface side of the laser medium, the area in which the heatsink is bonded via the bonding agent and the cladding to the one side of the laser medium defining a junction part of the cladding, the heatsink having a region having a cross section perpendicular to the optical axis having a comb shape in the lateral direction, the tips of the comb shape being bonded via the bonding agent and the cladding to the one surface of the laser medium, so that the junction part has a comb shape in the lateral direction in the said region wherein the laser medium generates a lens effect due to a refractive index distribution that is modulated in the lateral direction so that the laser light oscillates in a waveguide mode in the thickness direction, and oscillates in a spatial mode due to the lens effect in the lateral direction and in which the said refractive index distribution within the laser medium is created by generating a temperature distribution in the laser medium by means of the shape of said junction part of the cladding, characterized in that the junction part does not comprise a comb structure over the entire length of the gain medium, wherein the desired temperature distribution is generated in the laser medium by adjusting a length in the optical axis direction of the comb structure of the heatsink. pumping light means; a laser medium which is planar and has a waveguide structure in a thickness direction of a cross section perpendicular to an optical axis, and which has a length in the optical axis direction and a width in a lateral direction perpendicular to the optical axis and the thickness direction, for generating gain for laser light, wherein excitation light exiting from the pumping light means enters the laser medium; a cladding comprising an optical material and being bonded onto one surface of the laser medium; and a heat sink bonded via the cladding and a bonding agent onto the one surface side of the laser medium,
Inflatable surfboard with an inflatable hull component with two lateral arms (7a, 7b) which form a receptacle, and a drive unit which forms an outer contour which fits into the receptacle in a positively locking manner, and at least one fastening means (23, 23a, 23b, 24a, 24b, 26a, 26b, 27, 27a, 27b, 28, 61a, 61b) at the stern end of the surfboard, wherein the at least one fastening means (23, 23a, 23b, 24a, 24b, 26a, 26b, 27, 27a, 27b, 28, 61a, 61b) is inelastic and is designed as at least one belt (23, 23a, 23b, 24a, 24b, 26a, 26b, 27, 27a, 27b, 28) which is fastened to the two lateral arms (7a, 7b) and runs along the drive unit at the stern end, characterised in that the at least one fastening means (23, 23a, 23b, 24a, 24b, 26a, 26b, 27, 27a, 27b, 28, 61a, 61b) also has a lever mechanism (24a, 26a, 24b, 26b) with a lever closure, wherein the belt (23, 23a, 23b, 24a, 24b, 26a, 26b, 27, 27a, 27b, 28) can be tensioned by means of the lever mechanism (24a, 26a, 24b, 26b) with the lever closure by movements to and fro.
An ultrasound device (102, 202, 302), comprising: a housing sized and shaped for handheld use; an ultrasound transducer array (110, 210) disposed on the bottom face of the housing and configured to obtain ultrasound data while positioned adjacent to a body of a patient; a display (112, 212, 312) disposed on the top face of the housing and arranged to display medical information derived from the obtained ultrasound data; a plurality of sensors (104, 204) positioned within and distributed about a periphery of the housing and configured to detect when a hand of an operator is positioned around the housing; and a computing device disposed within the housing, wherein the computing device is in communication with the ultrasound transducer array (110, 210), the display (112, 212, 312), and the plurality of sensors (104, 204), the computing device operable to: monitor the plurality of sensors (104, 204); determine whether a reading from a first sensor (104, 204) of the plurality of sensors at a first edge of the periphery of the housing exceeds a threshold for an operator's thumb; characterized in that the computing device is further operable to: set the first edge as a primary edge based at least in part on the reading from the first sensor (104, 204) by determining that the first edge is gripped by the thumb of the operator; and orient the medical information on the display (112, 212, 312) such that the primary edge is at the bottom of the display. a housing sized and shaped for handheld use; an ultrasound transducer array (110, 210) disposed on the bottom face of the housing and configured to obtain ultrasound data while positioned adjacent to a body of a patient; a display (112, 212, 312) disposed on the top face of the housing and arranged to display medical information derived from the obtained ultrasound data; a plurality of sensors (104, 204) positioned within and distributed about a periphery of the housing and configured to detect when a hand of an operator is positioned around the housing; and a computing device disposed within the housing, wherein the computing device is in communication with the ultrasound transducer array (110, 210), the display (112, 212, 312), and the plurality of sensors (104, 204), the computing device operable to: monitor the plurality of sensors (104, 204); determine whether a reading from a first sensor (104, 204) of the plurality of sensors at a first edge of the periphery of the housing exceeds a threshold for an operator's thumb; characterized in that the computing device is further operable to: set the first edge as a primary edge based at least in part on the reading from the first sensor (104, 204) by determining that the first edge is gripped by the thumb of the operator; and orient the medical information on the display (112, 212, 312) such that the primary edge is at the bottom of the display.
A chemical indicator device for determining exposure to an oxidizing agent, consisting of: a. a substrate comprising one or more polymeric materials, paper, woven fibers, or non-woven fibers, or a combination of two or more thereof; and b. a chemical indicator composition disposed upon the substrate, consisting of a dye that is pararosaniline base for detecting the oxidizing agent, a binder, a UV-protectant, and an anti-foaming agent. a. a substrate comprising one or more polymeric materials, paper, woven fibers, or non-woven fibers, or a combination of two or more thereof; and b. a chemical indicator composition disposed upon the substrate, consisting of a dye that is pararosaniline base for detecting the oxidizing agent, a binder, a UV-protectant, and an anti-foaming agent.
A system for remotely monitoring and controlling a sump pump, the system comprising: a control system in electrical communication with the sump pump, the control system configured to regulate the sump pump based on a measured pressure value and a measured water level value; a sensor chamber connected to the sump pump and in communication with the control system, the sensor chamber comprising: a primary sensor designed to measure a pressure value; and a secondary sensor designed to measure a water level value; a wireless controller connected to the control system and configured to wirelessly receive monitoring instructions and wirelessly transmit sump pump status data; a remote device in communication with the control system, the wireless controller configured to transmit the sump pump status data to the remote device, characterized in that a user configures a water level set point value in the remote device; and a notification system is designed to generate and transmit an alert to the remote device when the measured water level value exceeds the water level set point value. a control system in electrical communication with the sump pump, the control system configured to regulate the sump pump based on a measured pressure value and a measured water level value; a sensor chamber connected to the sump pump and in communication with the control system, the sensor chamber comprising: a primary sensor designed to measure a pressure value; and a secondary sensor designed to measure a water level value; a primary sensor designed to measure a pressure value; and a secondary sensor designed to measure a water level value; a wireless controller connected to the control system and configured to wirelessly receive monitoring instructions and wirelessly transmit sump pump status data; a remote device in communication with the control system, the wireless controller configured to transmit the sump pump status data to the remote device, characterized in that a user configures a water level set point value in the remote device; and a notification system is designed to generate and transmit an alert to the remote device when the measured water level value exceeds the water level set point value.
An implantable prosthetic device, comprising: a radially expandable and compressible frame comprising a plurality of interconnected struts, each strut having a first end, a second end, and a length extending from the first end to the second end; wherein each strut comprises a plurality of recesses disposed on one or more longitudinal edges (312a, 312b) of the strut and extending into a width of the strut; one or more sutures extending through the recesses, wherein the recesses retain the one or more sutures and prevent the one or more sutures from sliding along the length of the struts; wherein each strut comprises a plurality of linear segments that are laterally offset from each other in a direction perpendicular to the lengths of the struts, wherein each linear segment comprises a plurality of recesses. a radially expandable and compressible frame comprising a plurality of interconnected struts, each strut having a first end, a second end, and a length extending from the first end to the second end; wherein each strut comprises a plurality of recesses disposed on one or more longitudinal edges (312a, 312b) of the strut and extending into a width of the strut; one or more sutures extending through the recesses, wherein the recesses retain the one or more sutures and prevent the one or more sutures from sliding along the length of the struts; wherein each strut comprises a plurality of linear segments that are laterally offset from each other in a direction perpendicular to the lengths of the struts, wherein each linear segment comprises a plurality of recesses.
A method, implemented by a server (405, 310), for camouflaging sensor data in a cloud computing environment, comprising: receiving, from a client (410, 305), camouflaged input data, the camouflaged input data resulting from application of a first encoding transformation to raw input sensor data; deriving a second camouflaged input data by applying a second encoding transformation to the camouflaged input data, wherein the second transformation is hidden and cannot be reverse engineered; wherein applying the second encoding transformation includes applying a decoding transformation corresponding to the first encoding transformation and a third transformation; using the second camouflaged input data as input to a neural network model, the neural network model created using a training data set created by applying the first and the second encoding transformations on training data; receiving a result from the neural network model; and transmitting output data to the client, the output data based on the result. receiving, from a client (410, 305), camouflaged input data, the camouflaged input data resulting from application of a first encoding transformation to raw input sensor data; deriving a second camouflaged input data by applying a second encoding transformation to the camouflaged input data, wherein the second transformation is hidden and cannot be reverse engineered; wherein applying the second encoding transformation includes applying a decoding transformation corresponding to the first encoding transformation and a third transformation; using the second camouflaged input data as input to a neural network model, the neural network model created using a training data set created by applying the first and the second encoding transformations on training data; receiving a result from the neural network model; and transmitting output data to the client, the output data based on the result.
A polymer-modified cementitious composition, comprising: an aqueous polymer dispersion comprising a polymer, wherein the polymer comprises, by weight based on the weight of the polymer, (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula, where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and a cementitious material. an aqueous polymer dispersion comprising a polymer, wherein the polymer comprises, by weight based on the weight of the polymer, (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula, where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and (a) a combined amount of more than 1% and up to 1.45% of structural units of carboxylic acid monomers, wherein the carboxylic acid monomers comprise a carboxylic acid functional (meth)acrylate having the structure of formula, where n is an integer of from 1 to 12, and R 1 and R 2 are each independently hydrogen or methyl, (b) from 2% to 6% of structural units of a hydroxy-functional alkyl (meth)acrylate, (c) from 15% to 45% of structural units of a vinyl aromatic monomer, (d) from 50% to 80% of structural units of an additional alkyl (meth)acrylate, and (e) less than 0.1% of structural units of (meth)acrylamide; and a cementitious material.
A container for consumer goods, the container comprising: a housing comprising a front housing wall, a back housing wall, two side housing walls, a bottom housing wall, and a housing opening; an inner bundle for consumer goods, wherein the inner bundle is positioned within the housing, the inner bundle comprising an inner bundle opening such that the housing opening overlies at least part of the inner bundle opening; and a label comprising a cover panel covering the inner bundle opening and a label flap,, wherein the label flap depends via a fold line from the cover panel and overlies at least part of the cover panel; characterized in that the front housing wall overlies the label fold line, wherein a portion of the label flap extends beyond an upper edge of the front housing wall so that a distal edge of the label flap distal from the fold line underlies the housing opening, wherein the inner bundle underlies the label fold line, and wherein an edge of the label cover panel extends beyond an edge of the inner bundle opening to define an edge portion of the label cover panel, the container further comprising a non-permanent adhesive on the edge portion of the label cover panel to releasably secure the edge portion to the inner bundle such that the label is retained in a closed position. a housing comprising a front housing wall, a back housing wall, two side housing walls, a bottom housing wall, and a housing opening; an inner bundle for consumer goods, wherein the inner bundle is positioned within the housing, the inner bundle comprising an inner bundle opening such that the housing opening overlies at least part of the inner bundle opening; and a label comprising a cover panel covering the inner bundle opening and a label flap,, wherein the label flap depends via a fold line from the cover panel and overlies at least part of the cover panel; characterized in that the front housing wall overlies the label fold line, wherein a portion of the label flap extends beyond an upper edge of the front housing wall so that a distal edge of the label flap distal from the fold line underlies the housing opening, wherein the inner bundle underlies the label fold line, and wherein an edge of the label cover panel extends beyond an edge of the inner bundle opening to define an edge portion of the label cover panel, the container further comprising a non-permanent adhesive on the edge portion of the label cover panel to releasably secure the edge portion to the inner bundle such that the label is retained in a closed position.