mhurhangee/ep-ind-claims huggingface dataset:
An oxidation furnace for the oxidative treatment of fibers, in particular for the production of carbon fibers, the oxidation furnace having a) a housing which is gas tight, except for passage regions (18, 20) for the fibers; b) a process chamber which is located in the interior of the housing; c) an atmosphere installation (40, 42, 48), by means of which a hot operating atmosphere can be generated and can be blown into the process chamber, wherein the hot operating atmosphere perfuses the process chamber under process conditions in a main flow direction; d) deflection rollers which guide the fibers lying beside one another as a fiber carpet in a serpentine manner through the process chamber, wherein the fiber carpet respectively defines a plane between opposing deflection rollers, characterized in that e) a flow measurement system is present, by means of which a flow profile of the operating atmosphere can be established under process conditions and which comprises at least one sensor installation for determining the flow velocity, which is arranged in a sensor region between two adjacent fiber carpets. a) a housing which is gas tight, except for passage regions (18, 20) for the fibers; b) a process chamber which is located in the interior of the housing; c) an atmosphere installation (40, 42, 48), by means of which a hot operating atmosphere can be generated and can be blown into the process chamber, wherein the hot operating atmosphere perfuses the process chamber under process conditions in a main flow direction; d) deflection rollers which guide the fibers lying beside one another as a fiber carpet in a serpentine manner through the process chamber, wherein the fiber carpet respectively defines a plane between opposing deflection rollers, characterized in that e) a flow measurement system is present, by means of which a flow profile of the operating atmosphere can be established under process conditions and which comprises at least one sensor installation for determining the flow velocity, which is arranged in a sensor region between two adjacent fiber carpets.
Arrangement having an electrical device, which has at least two electrical contact points (E1, E2, E3), and having a fluid-based reference potential connecting device which is suitable for connecting the electrical contact points (E1, E2, E3) to a reference potential, characterized in that - the fluid-based reference potential connecting device has an annular fluid line which connects the contact points (E1, E2, E3) in series, and - if a fluid flows through the fluid line, the fluid successively wets the contact points (E1, E2, E3), starting from a starting point, contact point (E1, E2, E3) by contact point (E1, E2, E3), along a predefined flow direction. - the fluid-based reference potential connecting device has an annular fluid line which connects the contact points (E1, E2, E3) in series, and - if a fluid flows through the fluid line, the fluid successively wets the contact points (E1, E2, E3), starting from a starting point, contact point (E1, E2, E3) by contact point (E1, E2, E3), along a predefined flow direction.
A computer implemented method for processing marine seismic data with combined deghosting and sparse τ-p transformation, the method comprising: (a) having marine seismic data d tx in a time-offset (t-x) domain; (b) having a model x comprising a set of coefficients of basis functions; (c) having a set of adaptive filters Cf comprising a set of coefficients of filters; (d) computing differences between synthesized data and the marine seismic data d tx, wherein the synthesized data is derived from the model x and the set of adaptive filters Cf; (e) setting up and solving an optimization problem, wherein: an objective function is a weighted sum of two norms; a first norm is an Lp norm of the differences; a second norm is an L q norm of the model x; the variables and solutions are coefficients of the model x and coefficients of filters C f; and p and q are non-negative numbers; and (f) using the solutions of the coefficients of model x and the coefficients of filters C f to derive a wavefield characterization. (a) having marine seismic data d tx in a time-offset (t-x) domain; (b) having a model x comprising a set of coefficients of basis functions; (c) having a set of adaptive filters Cf comprising a set of coefficients of filters; (d) computing differences between synthesized data and the marine seismic data d tx, wherein the synthesized data is derived from the model x and the set of adaptive filters Cf; (e) setting up and solving an optimization problem, wherein: an objective function is a weighted sum of two norms; a first norm is an Lp norm of the differences; a second norm is an L q norm of the model x; the variables and solutions are coefficients of the model x and coefficients of filters C f; and p and q are non-negative numbers; and an objective function is a weighted sum of two norms; a first norm is an Lp norm of the differences; a second norm is an L q norm of the model x; the variables and solutions are coefficients of the model x and coefficients of filters C f; and p and q are non-negative numbers; and (f) using the solutions of the coefficients of model x and the coefficients of filters C f to derive a wavefield characterization.
A method for recovering lithium from lithium-containing wastewater, comprising the following steps: adjusting a pH of the lithium-containing wastewater to be 2-7; and preparing and saponifying an organic phase successively, adding a saponified organic phase to the lithium-containing wastewater for extraction, and separating an aqueous phase to obtain a loaded organic phase containing lithium ions; wherein a solution for adjusting the pH of the lithium-containing wastewater is sulfuric acid; the organic phase comprises the following components: an extractant, a co-extractant and a diluent; wherein, the organic phase consists of the following components by mass percentage: 10%-40% of the extractant, 10%-40% of the co-extractant and 20%-70% of the diluent; the extractant is bis(2,4,4-trimethylpentyl) phosphinic acid; the co-extractant is tributyl phosphate; the diluent is sulfonated kerosene; a solution used for saponifying is sodium hydroxide; the saponified organic phase and the lithium-containing wastewater are in a volume ratio of 1: (0.5-4) for extraction; the extraction is multi-stage countercurrent extraction; wherein in step, the lithium-containing wastewater mainly comprises Li +, Na + and SO 4 2-; the Li + concentration of the lithium-containing wastewater is 0.5-4.0 g/L; the Na + concentration of the lithium-containing wastewater is 15-40 g/L. adjusting a pH of the lithium-containing wastewater to be 2-7; and preparing and saponifying an organic phase successively, adding a saponified organic phase to the lithium-containing wastewater for extraction, and separating an aqueous phase to obtain a loaded organic phase containing lithium ions; wherein a solution for adjusting the pH of the lithium-containing wastewater is sulfuric acid; the organic phase comprises the following components: an extractant, a co-extractant and a diluent; wherein, the organic phase consists of the following components by mass percentage: 10%-40% of the extractant, 10%-40% of the co-extractant and 20%-70% of the diluent; the extractant is bis(2,4,4-trimethylpentyl) phosphinic acid; the co-extractant is tributyl phosphate; the diluent is sulfonated kerosene; a solution used for saponifying is sodium hydroxide; the saponified organic phase and the lithium-containing wastewater are in a volume ratio of 1: (0.5-4) for extraction; the extraction is multi-stage countercurrent extraction; wherein in step, the lithium-containing wastewater mainly comprises Li +, Na + and SO 4 2-; the Li + concentration of the lithium-containing wastewater is 0.5-4.0 g/L; the Na + concentration of the lithium-containing wastewater is 15-40 g/L.
A hair care composition comprising: (a) a polyhydroxy fatty acid amide surfactant of general formula: wherein R 1 is a C 1- C 4 alkyl groups or hydroxy-substituted C 1- C 4 alkyl groups; R 2 CO is a linear or branched, saturated or unsaturated C 12 -C 18 acyl group; (b) a silicone compound; and (c) from 0.01 to 10% by weight of an anti-dandruff agent selected from piroctone olamine, azole based anti-fungal agents and mixtures thereof. (a) a polyhydroxy fatty acid amide surfactant of general formula: wherein R 1 is a C 1- C 4 alkyl groups or hydroxy-substituted C 1- C 4 alkyl groups; R 2 CO is a linear or branched, saturated or unsaturated C 12 -C 18 acyl group; (b) a silicone compound; and (c) from 0.01 to 10% by weight of an anti-dandruff agent selected from piroctone olamine, azole based anti-fungal agents and mixtures thereof.
Valve arrangement for a rotationally fixed transition, in particular for a rotary feedthrough, of a pressure medium supply device for a wheel unit, comprising a housing part through which a pressure medium can flow and adapted to be arranged at a carrier-side of the wheel unit, and a control piston, in particular an axially displaceable control piston, which is received in the housing part, and comprising a discharge element adapted to be arranged on a wheel body-side of the wheel unit and having an outlet for guiding the pressure medium, wherein the housing part and the discharge element are arranged rotatably relative to one another, wherein the control piston has at least one flow channel for the pressure medium and at least one force application surface, which can be acted upon by the pressure medium, wherein the control piston is movable, by applying pressure to the at least one force application surface, between a disengaged position and an engaged position, wherein in the engaged position an essentially pressure-tight contact exists between the control piston and the discharge element, and further wherein in the engaged position a pressure medium routing is allowed between the housing part and the discharge element.
Wood material panel, in particular a flooring panel, having an upper side and an underside with two long edges (a, a') and two wide edges (b, b'), at least one protrusion (2a-c) made of plastic and having a predetermined height h being provided on the underside of the wood material panel, characterized in that the at least one plastic protrusion (2a-c) is provided in at least one depression in the panel underside, wherein the at least one depression is filled with at least one plastic, so that the plastic projects out of the depression with the predetermined height h from the panel underside.
A method of providing an interactive user interface for a television display, the method comprising displaying a plurality of programme items in a two-dimensional grid display, wherein a selectable one of the programme items is highlighted, and simultaneously displaying additional information relating to the highlighted said programme item; the method being characterised by receiving a command to cause scrolling of the two-dimensional grid display of programme items, and in response thereto, removing said display of additional information while scrolling the two-dimensional grid display of programme items; wherein the additional information is displayed after scrolling the display of programme items, relating to a highlighted one of the programme items on the two-dimensional grid display.
A semiconductor device, comprising: an element isolation structure having a first sidewall and a second sidewall extending in a first direction, the first sidewall being opposite to the second sidewall of in a second direction; a first fin-shaped pattern in contact with the first sidewall of the element isolation structure, the first fin-shaped pattern extending in the second direction; a second fin-shaped pattern in contact with the second sidewall of the element isolation structure, the second fin-shaped pattern extending in the second direction and being spaced from the first fin-shaped pattern in the first direction; a first gate electrode extending in the first direction on the first fin-shaped pattern; a first source/drain contact on the first fin-shaped pattern and the second fin-shaped pattern, the first source/drain contact extending in the first direction between the first gate electrode and the element isolation structure; and a wiring structure connected to the first source/drain contact on the first source/drain contact, wherein the first source/drain contact includes a first lower contact region intersecting the first fin-shaped pattern and the second fin-shaped pattern, a first upper contact region protruding from the first lower contact region, and a first dummy contact region, the wiring structure being in contact with an upper surface of the first upper contact region and not being in contact with an upper surface of the first dummy contact region. an element isolation structure having a first sidewall and a second sidewall extending in a first direction, the first sidewall being opposite to the second sidewall of in a second direction; a first fin-shaped pattern in contact with the first sidewall of the element isolation structure, the first fin-shaped pattern extending in the second direction; a second fin-shaped pattern in contact with the second sidewall of the element isolation structure, the second fin-shaped pattern extending in the second direction and being spaced from the first fin-shaped pattern in the first direction; a first gate electrode extending in the first direction on the first fin-shaped pattern; a first source/drain contact on the first fin-shaped pattern and the second fin-shaped pattern, the first source/drain contact extending in the first direction between the first gate electrode and the element isolation structure; and a wiring structure connected to the first source/drain contact on the first source/drain contact, wherein the first source/drain contact includes a first lower contact region intersecting the first fin-shaped pattern and the second fin-shaped pattern, a first upper contact region protruding from the first lower contact region, and a first dummy contact region, the wiring structure being in contact with an upper surface of the first upper contact region and not being in contact with an upper surface of the first dummy contact region.
A printing apparatus comprising: a printing section configured to perform printing on a transparent base material to generate a printed matter, an illumination section including a reflective illumination part that is disposed on one surface side of the base material and is configured to irradiate the base material with illumination light and a transmissive illumination part that is disposed on the other surface side of the base material and is configured to irradiate the base material with illumination light; a reading section that is disposed on the one surface side of the base material and is configured to read reflected light of the base material or transmitted light of the base material; an inspection information acquisition section configured to acquire inspection information on an inspection performed on the printed matter: and an illumination control section configured to selectively control at least one of (i) the reflective illumination part and (ii) the transmissive illumination part on the basis of the inspection information acquired by using the inspection information acquisition section; characterised in that the illumination control section performs a control using at least the transmissive illumination part in a case where the inspection information indicating that a printing element abnormality inspection is performed is acquired; and wherein the illumination control section performs at least a control using the reflective illumination part in a case where the inspection information indicating that a printing unevenness inspection is performed is acquired. a printing section configured to perform printing on a transparent base material to generate a printed matter, an illumination section including a reflective illumination part that is disposed on one surface side of the base material and is configured to irradiate the base material with illumination light and a transmissive illumination part that is disposed on the other surface side of the base material and is configured to irradiate the base material with illumination light; a reading section that is disposed on the one surface side of the base material and is configured to read reflected light of the base material or transmitted light of the base material; an inspection information acquisition section configured to acquire inspection information on an inspection performed on the printed matter: and an illumination control section configured to selectively control at least one of (i) the reflective illumination part and (ii) the transmissive illumination part on the basis of the inspection information acquired by using the inspection information acquisition section; characterised in that the illumination control section performs a control using at least the transmissive illumination part in a case where the inspection information indicating that a printing element abnormality inspection is performed is acquired; and wherein the illumination control section performs at least a control using the reflective illumination part in a case where the inspection information indicating that a printing unevenness inspection is performed is acquired.
A method comprising: determining, by a wireless device, that a first sounding reference signal, SRS, resource of a first cell and a second SRS resource of the first cell overlap with a third SRS resource of a second cell; determining, by the wireless device, that a first spatial transmission filter of the first SRS resource and a second spatial transmission filter of the second SRS resource are different from a third spatial transmission filter of the third SRS resource; based on the determining that the first SRS resource of the first cell and the second SRS resource of the first cell overlap with the third SRS resource of the second cell, and based on the determining that the first spatial transmission filter of the first SRS resource and the second spatial transmission filter of the second SRS resource are different from the third spatial transmission filter of the third SRS resource, selecting a spatial transmission filter from the first spatial transmission filter or the second spatial transmission filter; and transmitting, by the wireless device via the selected spatial transmission filter, an SRS for the third SRS resource. determining, by a wireless device, that a first sounding reference signal, SRS, resource of a first cell and a second SRS resource of the first cell overlap with a third SRS resource of a second cell; determining, by the wireless device, that a first spatial transmission filter of the first SRS resource and a second spatial transmission filter of the second SRS resource are different from a third spatial transmission filter of the third SRS resource; based on the determining that the first SRS resource of the first cell and the second SRS resource of the first cell overlap with the third SRS resource of the second cell, and based on the determining that the first spatial transmission filter of the first SRS resource and the second spatial transmission filter of the second SRS resource are different from the third spatial transmission filter of the third SRS resource, selecting a spatial transmission filter from the first spatial transmission filter or the second spatial transmission filter; and transmitting, by the wireless device via the selected spatial transmission filter, an SRS for the third SRS resource.
A user equipment, UE, comprising: a transceiver which, in operation, receives, on a physical downlink control channel, PDCCH, downlink control information, DCI, for scheduling a plurality of transmissions or receptions between the UE and a plurality of transmission and reception points, TRPs, on a plurality of channels, the DCI including one or more indicators indicating one or more respective transmission parameters; and circuitry which, in operation, obtains, based on the one or more indicators and on a configuration indicated by a transmission configuration indication, TCI field of the DCI, a plurality of values respectively of the one or more transmission parameters; wherein the transceiver, in operation, performs the plurality of transmissions or receptions using a respective one of the plurality of values of the one or more transmission parameters for each of the plurality of transmissions or receptions, characterized in that the plurality of values respectively of the one or more transmission parameters is obtained by using a first table in a case where the configuration indicated by the TCI field indicates a single TRP case, and the plurality of values respectively of the one or more transmission parameters is obtained by using a second table in a case where the configuration indicated by the TCI field indicates a multi-TRP case. a transceiver which, in operation, receives, on a physical downlink control channel, PDCCH, downlink control information, DCI, for scheduling a plurality of transmissions or receptions between the UE and a plurality of transmission and reception points, TRPs, on a plurality of channels, the DCI including one or more indicators indicating one or more respective transmission parameters; and circuitry which, in operation, obtains, based on the one or more indicators and on a configuration indicated by a transmission configuration indication, TCI field of the DCI, a plurality of values respectively of the one or more transmission parameters; wherein the transceiver, in operation, performs the plurality of transmissions or receptions using a respective one of the plurality of values of the one or more transmission parameters for each of the plurality of transmissions or receptions, characterized in that the plurality of values respectively of the one or more transmission parameters is obtained by using a first table in a case where the configuration indicated by the TCI field indicates a single TRP case, and the plurality of values respectively of the one or more transmission parameters is obtained by using a second table in a case where the configuration indicated by the TCI field indicates a multi-TRP case.
A method for diagnosing a predisposition to developing a more severe scoliosis at a future time in a subject having a scoliosis, said method comprising: (a) measuring a first level of osteopontin in a biological sample from said subject; (b) measuring a second level of OPN in a corresponding biological sample from said subject, wherein said corresponding biological sample is obtained after a mechanical stimulus or force has been applied to one or more body parts from said subject; (c) determining a variation between said first level of OPN and said second level of OPN; (d) comparing said variation to a control variation value; and (e) determining whether said subject is predisposed to developing a more severe scoliosis at a future time based on said comparison. (a) measuring a first level of osteopontin in a biological sample from said subject; (b) measuring a second level of OPN in a corresponding biological sample from said subject, wherein said corresponding biological sample is obtained after a mechanical stimulus or force has been applied to one or more body parts from said subject; (c) determining a variation between said first level of OPN and said second level of OPN; (d) comparing said variation to a control variation value; and (e) determining whether said subject is predisposed to developing a more severe scoliosis at a future time based on said comparison.
A method for regenerating a weakly basic ion-exchange resin for removing a boron impurity, comprising: cleaning the weakly basic ion-exchange resin with a gas comprising hydrogen chloride to regenerate the weakly basic ion-exchange resin, wherein the method further comprising dehydrating the weakly basic ion-exchange resin in advance by passing dry gas having a water content is 1 vol% or less, and wherein the gas comprising hydrogen chloride is a mixed gas comprising one or more gases selected from hydrogen, nitrogen, helium, and argon.