mhurhangee/ep-ind-claims huggingface dataset:
A method for cleaning a tire for removing deposits being unnecessary and adhering to a predetermined range by irradiating the predetermined range of a tire surface with plasma from an irradiation head, characterized in that the method comprises using a tire having identical specifications as the tire to be cleaned or a rubber sample similar thereto, the output strength of the plasma is set to a predetermined value within the range of a required output strength of the plasma required to remove the unnecessary deposits, setting the separation interval (d) between an irradiation port of the irradiation head and a rubber surface of the tire in the predetermined range and the irradiation time (t) of the plasma to be different, irradiating with the plasma in a pinpoint manner without moving the irradiation head and the rubber surface in the predetermined range in relation to each other, observing the predetermined range irradiated with the plasma, and based on observation results of the removal state of the deposits adhering to the predetermined range and the damage state of the rubber on the rubber surface in the predetermined range, identifying an allowable range for each of the predetermined value of the output strength, the separation interval (d) and the irradiation time (t) as the irradiation conditions of plasma in which rubber on the tire surface in the predetermined range is not damaged by the irradiated plasma in advance and irradiating plasma from the irradiation head to the predetermined range of the tire to be cleaned under the allowable range of irradiation conditions identified in advance to remove the deposits. characterized in that the method comprises using a tire having identical specifications as the tire to be cleaned or a rubber sample similar thereto, the output strength of the plasma is set to a predetermined value within the range of a required output strength of the plasma required to remove the unnecessary deposits, setting the separation interval (d) between an irradiation port of the irradiation head and a rubber surface of the tire in the predetermined range and the irradiation time (t) of the plasma to be different, irradiating with the plasma in a pinpoint manner without moving the irradiation head and the rubber surface in the predetermined range in relation to each other, observing the predetermined range irradiated with the plasma, and based on observation results of the removal state of the deposits adhering to the predetermined range and the damage state of the rubber on the rubber surface in the predetermined range, identifying an allowable range for each of the predetermined value of the output strength, the separation interval (d) and the irradiation time (t) as the irradiation conditions of plasma in which rubber on the tire surface in the predetermined range is not damaged by the irradiated plasma in advance and irradiating plasma from the irradiation head to the predetermined range of the tire to be cleaned under the allowable range of irradiation conditions identified in advance to remove the deposits.
A computer-implemented method comprising: receiving desired locations of nodes for deployment on a seabed of a monitor seismic survey, wherein the desired locations comprise locations of nodes of a baseline seismic survey and wherein each of the nodes comprises a sealed housing and, within the sealed housing, at least one battery and spaced seismic sensors (312, 313) electrically powered by the at least one battery; determining locations of the nodes as deployed on the seabed for the monitor survey, wherein at least some of the determined locations differ from their corresponding desired locations; acquiring seismic data sensed by the spaced seismic sensors (312, 313) of the nodes, wherein the acquired seismic data corresponds to the determined locations; and based at least in part on the acquired seismic data, a spacing of the spaced seismic sensors (312, 313) and the determined and the desired locations, generating seismic data for the desired locations, wherein the spacing of the spaced seismic sensors within each of the nodes is used to determine a gradient of the acquired seismic data for each of the nodes, and wherein the seismic data and the gradient, as both acquired at each of the determined locations, are then being extrapolated to generate the seismic data for the desired locations. receiving desired locations of nodes for deployment on a seabed of a monitor seismic survey, wherein the desired locations comprise locations of nodes of a baseline seismic survey and wherein each of the nodes comprises a sealed housing and, within the sealed housing, at least one battery and spaced seismic sensors (312, 313) electrically powered by the at least one battery; determining locations of the nodes as deployed on the seabed for the monitor survey, wherein at least some of the determined locations differ from their corresponding desired locations; acquiring seismic data sensed by the spaced seismic sensors (312, 313) of the nodes, wherein the acquired seismic data corresponds to the determined locations; and based at least in part on the acquired seismic data, a spacing of the spaced seismic sensors (312, 313) and the determined and the desired locations, generating seismic data for the desired locations, wherein the spacing of the spaced seismic sensors within each of the nodes is used to determine a gradient of the acquired seismic data for each of the nodes, and wherein the seismic data and the gradient, as both acquired at each of the determined locations, are then being extrapolated to generate the seismic data for the desired locations.
Multilayered wound dressing comprising a) a first layer having a first side and a second side and comprising a water-containing hydrogel matrix, and b) at least one second layer having a first side and a second side and comprising a hydrophilic polymer foam, wherein the polymer foam is a hydrophilic polyurethane foam, characterized in that the polymer foam comprises a water fraction of at least 10% by weight of water, the wound dressing comprises the first layer as a wound contact layer and the first layer comprises a water-containing hydrogel matrix which has channels, openings or holes to allow liquids to pass through the hydrogel matrix from the first to the second side, in that the wound dressing comprises a transition layer which is disposed between the first layer and the second layer and comprises not only the polymer foam but also the hydrogel matrix, and in that the transition layer has channels, openings or holes which are congruent to the channels, openings or holes in the wound contact layer and are filled with polyurethane foam. a) a first layer having a first side and a second side and comprising a water-containing hydrogel matrix, and b) at least one second layer having a first side and a second side and comprising a hydrophilic polymer foam,
Process to manufacture a water-in-oil emulsion, comprising • 10 to 85 wt. % of liquid oil; • 0.5 to 50 wt. % of fat powder comprising hardstock fat; • 10 to 85 wt. % of a water-phase; • 0.005 to 5 wt. % of lecithin; and • 0.01 to 5 wt. % of monoglyceride; comprising the steps of: 1. providing a solution of at most 5 wt. % of the liquid oil, based on the total amount of liquid oil, comprising at least 50 wt. % of dissolved lecithin, based on total amount of lecithin; and at least 50 wt. % of dissolved monoglyceride, based on total amount of monoglyceride; wherein the temperature of the solution is at least 50 degrees Celsius; 2. providing an oil-continuous system comprising at least 75 wt. % of the liquid oil, based on the total amount of liquid oil, wherein the system has a temperature of from 0 to 20 degrees Celsius; 3. contacting the solution provided at step '1' with the system provided at step '2'; 4. mixing the mixture provided at step '3' to provide a water-in-oil emulsion; wherein any remaining ingredients are added whole at step '2', step '3' or step '4' or added in parts in any combination at step '2', step '3' and step '4'. • 10 to 85 wt. % of liquid oil; • 0.5 to 50 wt. % of fat powder comprising hardstock fat; • 10 to 85 wt. % of a water-phase; • 0.005 to 5 wt. % of lecithin; and • 0.01 to 5 wt. % of monoglyceride; 1. providing a solution of at most 5 wt. % of the liquid oil, based on the total amount of liquid oil, comprising at least 50 wt. % of dissolved lecithin, based on total amount of lecithin; and at least 50 wt. % of dissolved monoglyceride, based on total amount of monoglyceride; wherein the temperature of the solution is at least 50 degrees Celsius; 2. providing an oil-continuous system comprising at least 75 wt. % of the liquid oil, based on the total amount of liquid oil, wherein the system has a temperature of from 0 to 20 degrees Celsius; 3. contacting the solution provided at step '1' with the system provided at step '2'; 4. mixing the mixture provided at step '3' to provide a water-in-oil emulsion;
A droplet ejector for a printhead, the droplet ejector comprising: a substrate having a mounting surface and an opposite nozzle surface; at least one electronic component integrated with the substrate; a nozzle-forming layer formed on at least a portion of the nozzle surface of the substrate; a fluid chamber defined at least in part by the substrate and at least in part by the nozzle-forming layer, the fluid chamber having a fluid chamber outlet defined at least in part by a nozzle portion of the said nozzle-forming layer; a piezoelectric actuator formed on at least a portion of the nozzle portion of the nozzle-forming layer, the piezoelectric actuator comprising a piezoelectric body provided between first and second electrodes, at least one of the said first and second electrodes being electrically connected to the at least one electronic component (201, 203), and the piezoelectric body comprising one or more piezoelectric materials processable at a temperature below 450°C; and a protective layer covering the piezoelectric actuator and the nozzle-forming layer.
A radiation imaging system comprising: a) a layer for a radiation converter; b) a top electrode on the layer for a radiation converter; and c) an array of pixel unit electrically coupled to the layer for a radiation converter; wherein, said layer for a radiation converter comprises an organic matrix comprising a charge transport material; and scintillating particles for absorbing radiation, being dispersed in the organic matrix, wherein the scintillating particles are in contact with a charge generation material. a) a layer for a radiation converter; b) a top electrode on the layer for a radiation converter; and c) an array of pixel unit electrically coupled to the layer for a radiation converter;
An air separation module, comprising: a cylindrical canister having a longitudinal axis, an inlet, an oxygen-depleted air outlet, and a drain portion with an oxygen-enriched air outlet; a separator arranged within the cylindrical canister to separate a compressed air flow into an oxygen-depleted air flow fraction and an oxygen-enriched air flow fraction, the oxygen-depleted air flow fraction provided to the oxygen-depleted air outlet and the oxygen-enriched air flow fraction to the drain portion of the canister; and a sump portion fluidly coupling the drain portion to the cylindrical canister, wherein a first end of the sump portion is arranged within the cylindrical canister and the sump portion extends radially from an outer surface of the cylindrical canister, and the drain portion is connected to a second, opposite end of the sump portion; wherein the drain portion extends tangentially from the cylindrical canister to issue the oxygen-enriched air flow fraction and entrained condensate from the oxygen-enriched air outlet with a tangential flow component. a cylindrical canister having a longitudinal axis, an inlet, an oxygen-depleted air outlet, and a drain portion with an oxygen-enriched air outlet; a separator arranged within the cylindrical canister to separate a compressed air flow into an oxygen-depleted air flow fraction and an oxygen-enriched air flow fraction, the oxygen-depleted air flow fraction provided to the oxygen-depleted air outlet and the oxygen-enriched air flow fraction to the drain portion of the canister; and a sump portion fluidly coupling the drain portion to the cylindrical canister, wherein a first end of the sump portion is arranged within the cylindrical canister and the sump portion extends radially from an outer surface of the cylindrical canister, and the drain portion is connected to a second, opposite end of the sump portion; wherein the drain portion extends tangentially from the cylindrical canister to issue the oxygen-enriched air flow fraction and entrained condensate from the oxygen-enriched air outlet with a tangential flow component.
Aqueous blocked polyurethaneurea dispersion obtainable by reacting at least a) one polyisocyanate, b) one blocking agent for isocyanate groups, c) one polyamine having at least one carboxyl and/or carboxylate group, d) water, the blocking agent b) comprising or consisting of 3,5-dimethylpyrazole and being used in a fraction of > 70 mol% based on the isocyanate groups of component a). a) one polyisocyanate, b) one blocking agent for isocyanate groups, c) one polyamine having at least one carboxyl and/or carboxylate group, d) water,
Arrangement having: a rotary controller; an electronic display comprising a transparent outer layer; wherein the rotary controller has an actuating part and means for rotary setting detection (3, 6), wherein the actuating part is supported by means of bearing means so as to be rotationally movable about an axis of rotation and the rotary controller is arranged on the transparent layer; and the arrangement furthermore has on the transparent layer a circumferential wall surrounding at least the supporting means, wherein the circumferential wall is defined by a ridge-type and annular elevation on the transparent layer; wherein at least one opening disposed at the centre of the rotary controller is provided for the visibility or optical projection by means of the electronic display, and characterized in that the bearing means comprise a rolling bearing, in that the inner track thereof is arranged on an annular mount in the direction of the operator with an offset to the transparent layer, or in that the mount defines an inner track of the rolling bearing that is arranged in the direction of the user with an offset to the transparent layer.
A container assembly comprising: a. a container having four upright side walls (21, 22) and a container floor, and b. at least one drain canal unit adapted to be operatively engaged in an interlocked fashion with said container near a corner thereof, the drain canal unit comprising a hollow structure forming at least one drain canal that has at least one entry opening near its top and at least one spout at its lower end, for insertion into and through the container floor so that the at least one entry opening, when the drain canal unit is interlocked with the container, faces a corner of the container; characterised in that the container comprises slots (33,34) on at least two adjacent inner side walls (21, 22), near a corner of the container, the drain canal unit comprising peripheral portions adapted to fit into and interlock with said slots (33, 34) to form a substantially water-tight seal when engaged with said slots so that the drain canal unit is engaged in an interlocked fashion with two adjacent side walls (21, 22) of the container in proximity to a corner thereof and wherein the container is further adapted to receive the drain canal unit spout into and through an opening in the container floor so that a substantially water-tight seal is formed therebetween; and in that when a drain canal unit is engaged with a corner of the container, at least one circulation channel (23, 24) between the drain canal unit and the corner of the container is formed; whereby the engaged at least one drain canal unit and the container form at least one circulation route, wherein each circulation route has an entry portion formed between the drain canal unit and the container floor provided by a gap between the drain channel unit and the container floor, a corner channel portion comprising said at least one circulation channel (23, 24), between the drain canal unit and a container corner, and a drain channel portion, within the drain canal unit; so that water within the body of the container can circulate through the entry portion into and upwardly through the corner channel portion and be drained downwardly through the drain channel portion of the drain canal unit to exit the container assembly via its spout.
Method for adjusting a hearing aid with an external unit that can interchange data with the hearing aid, characterized by: - the hearing aid being worn by a hearing aid wearer, - times and hearing situations for which at least one prescribable algorithm in the hearing aid is activated for signal processing, and the algorithm selected in this manner, being stored in the external unit, - the hearing aid being changed over to a learning mode, - the stored times and hearing situations being output on the external unit, - a rating measure that expresses the satisfaction of the hearing aid wearer with the activated algorithm being input into the external unit, and - at least one parameter of the algorithm being changed on the basis of the rating measure. - the hearing aid being worn by a hearing aid wearer, - times and hearing situations for which at least one prescribable algorithm in the hearing aid is activated for signal processing, and the algorithm selected in this manner, being stored in the external unit, - the hearing aid being changed over to a learning mode, - the stored times and hearing situations being output on the external unit, - a rating measure that expresses the satisfaction of the hearing aid wearer with the activated algorithm being input into the external unit, and - at least one parameter of the algorithm being changed on the basis of the rating measure.
A rights object acquisition method comprising: transmitting a rights object request message requesting individual rights objects of a plurality of content objects from a mobile terminal to a first rights issuer; creating, at the first rights issuer, a rights object response message containing at least one of the rights objects indicated by the rights object request message and the first rights issuer's signature; checking, at the first rights issuer, whether an address of a second rights issuer is contained in the rights object request message; transmitting, when the address of the second rights issuer is contained in the rights object request message, the rights object request message and the rights object response message from the first rights issuer to the second rights issuer; and transmitting, when no address of the second rights issuer is contained in the rights object request message, the rights object response message from the first rights issuer to the mobile terminal. transmitting a rights object request message requesting individual rights objects of a plurality of content objects from a mobile terminal to a first rights issuer; creating, at the first rights issuer, a rights object response message containing at least one of the rights objects indicated by the rights object request message and the first rights issuer's signature; checking, at the first rights issuer, whether an address of a second rights issuer is contained in the rights object request message; transmitting, when the address of the second rights issuer is contained in the rights object request message, the rights object request message and the rights object response message from the first rights issuer to the second rights issuer; and transmitting, when no address of the second rights issuer is contained in the rights object request message, the rights object response message from the first rights issuer to the mobile terminal.
Method for reducing the stress at an intersection of two ducts (9, 10), which open into one another, in a body produced from a metallic material, wherein a medium subjected to high pressure is conducted in the ducts (9, 10), and the second duct opens tangentially into the first duct, which is made axially in the body, wherein a pocket (13a, 13b, 13bb) is arranged on both sides of the opening-in point of the second duct into the first duct, and wherein the pocket is oriented with respect to the opening-in point such that a duct wall of the second duct projects up to the first duct and that a duct wall of the second duct on the opposite side merges into the pocket at an obtuse angle before connection to the first duct, characterized in that the pockets (13a, 13b) are formed as spherical segment-shaped pockets (13a, 13b) by way of a tool, which has an angular drive, only in the region of the height of the opening-in point into the body.
An apparatus for detecting gamma radiation in a borehole, the apparatus comprising: a chassis configured to be disposed in the borehole; a gamma detector disposed in the chassis and comprising: a scintillation crystal responsive to gamma radiation; and a photomultiplier tube optically coupled to the scintillation crystal; a housing configured to circumscribe the gamma detector and having a first end and a second end; a first axial shock reducer configured to be in mechanical communication with the first end of the housing and the chassis; and a second axial shock reducer configured to be in mechanical communication with the second end of the housing and the chassis; characterized in that the apparatus further comprises a sleeve configured to circumscribe the housing; and a lateral shock reducer configured to circumscribe the sleeve and comprising a contiguous passage between a first end and a second end of the lateral shock reducer, wherein the contiguous passage is configured to allow passage of wires from the first end of the lateral shock reducer to the second end of the lateral shock reducer. a chassis configured to be disposed in the borehole; a gamma detector disposed in the chassis and comprising: a scintillation crystal responsive to gamma radiation; and a photomultiplier tube optically coupled to the scintillation crystal; a scintillation crystal responsive to gamma radiation; and a photomultiplier tube optically coupled to the scintillation crystal; a housing configured to circumscribe the gamma detector and having a first end and a second end; a first axial shock reducer configured to be in mechanical communication with the first end of the housing and the chassis; and a second axial shock reducer configured to be in mechanical communication with the second end of the housing and the chassis; characterized in that the apparatus further comprises a sleeve configured to circumscribe the housing; and a lateral shock reducer configured to circumscribe the sleeve and comprising a contiguous passage between a first end and a second end of the lateral shock reducer, wherein the contiguous passage is configured to allow passage of wires from the first end of the lateral shock reducer to the second end of the lateral shock reducer.