mhurhangee/patent-ind-claim-en huggingface dataset:
A modular assembly for handling excavating equipment for various excavating configurations of an excavating machine, comprising: - a first rotating table comprising: - a main body ; - one or more motors associated with said main body , each of said motors being provided with a pinion ; - at least one bearing having a fixed ring constrained to said main body and a movable ring which is coaxial to and rotatable with respect to said fixed ring; - a dragging sleeve integrally coupled to said movable ring coaxially to said at least one bearing ; - a ring gear integrally and coaxially coupled with said dragging sleeve and provided to engage with said pinion so as to be moved in rotation by said motors by rotating integrally to said dragging sleeve and integrally to said movable ring ; - a second rotating table adapted to be coupled to a continuous excavating auger ; - a plurality of accessories which can be associated with said first rotating table so that the first rotating table can be selectively coupled to a telescopic Kelly rod in a first of said excavating configurations, or with a continuous excavating auger in a second of said excavating configurations or with a casing and excavating pipe in a third of said excavating configurations. - a first rotating table comprising: - a main body ; - one or more motors associated with said main body , each of said motors being provided with a pinion ; - at least one bearing having a fixed ring constrained to said main body and a movable ring which is coaxial to and rotatable with respect to said fixed ring; - a dragging sleeve integrally coupled to said movable ring coaxially to said at least one bearing ; - a ring gear integrally and coaxially coupled with said dragging sleeve and provided to engage with said pinion so as to be moved in rotation by said motors by rotating integrally to said dragging sleeve and integrally to said movable ring ; - a main body ; - one or more motors associated with said main body , each of said motors being provided with a pinion ; - at least one bearing having a fixed ring constrained to said main body and a movable ring which is coaxial to and rotatable with respect to said fixed ring; - a dragging sleeve integrally coupled to said movable ring coaxially to said at least one bearing ; - a ring gear integrally and coaxially coupled with said dragging sleeve and provided to engage with said pinion so as to be moved in rotation by said motors by rotating integrally to said dragging sleeve and integrally to said movable ring ; - a second rotating table adapted to be coupled to a continuous excavating auger ; - a plurality of accessories which can be associated with said first rotating table so that the first rotating table can be selectively coupled to a telescopic Kelly rod in a first of said excavating configurations, or with a continuous excavating auger in a second of said excavating configurations or with a casing and excavating pipe in a third of said excavating configurations.
Method for producing a multicoat paint system (M) on a metallic substrate (S), comprising producing a cured electrocoat (E.1) on the metallic substrate (S) by electrophoretic application of an electrocoat (e.1) to the substrate (S) and subsequent curing of the electrocoat (e.1), producing (2.1) a basecoat (B.2.1) or (2.2) a plurality of directly successive basecoats (B.2.2.x) directly on the cured electrocoat (E.1) by (2.1) applying an aqueous basecoat material (b.2.1) directly to the electrocoat (E.1) or (2.2) applying a plurality of basecoat materials (b.2.2.x) in direct succession to the electrocoat (E.1), producing a clearcoat (K) directly on (3.1) of the basecoat (B.2.1) or (3.2) an uppermost basecoat (B.2.2.x) by applying a clearcoat material (k) directly to (3.1) the basecoat (B.2.1) or (3.2) the uppermost basecoat (B.2.2.x), jointly curing (4.1) the basecoat (B.2.1) and the clearcoat (K) or (4.2) the basecoats (B.2.2.x) and the clearcoat (K), characterized in that the basecoat material (b.2.1) or at least one of the basecoat materials (b.2.2.x) comprises at least one linear hydroxy-functional reaction product (R) having an acid number less than 20 mg KOH/g, the preparation of which involves using at least one compound (v) containing two functional groups (v.1) and an aliphatic or araliphatic hydrocarbyl radical (v.2) which is arranged between the functional groups and has 12 to 70 carbon atoms. producing a cured electrocoat (E.1) on the metallic substrate (S) by electrophoretic application of an electrocoat (e.1) to the substrate (S) and subsequent curing of the electrocoat (e.1), producing (2.1) a basecoat (B.2.1) or (2.2) a plurality of directly successive basecoats (B.2.2.x) directly on the cured electrocoat (E.1) by (2.1) applying an aqueous basecoat material (b.2.1) directly to the electrocoat (E.1) or (2.2) applying a plurality of basecoat materials (b.2.2.x) in direct succession to the electrocoat (E.1), producing a clearcoat (K) directly on (3.1) of the basecoat (B.2.1) or (3.2) an uppermost basecoat (B.2.2.x) by applying a clearcoat material (k) directly to (3.1) the basecoat (B.2.1) or (3.2) the uppermost basecoat (B.2.2.x), jointly curing (4.1) the basecoat (B.2.1) and the clearcoat (K) or (4.2) the basecoats (B.2.2.x) and the clearcoat (K),
An unprinted inkjet-printable fillable pouch made of an unprinted inkjet-printable film comprising: (a) a multilayer polymer film comprising a base layer (a1) and a sealing layer (a2), preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one ink-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted inkjet-printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the ink-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. (a) a multilayer polymer film comprising a base layer (a1) and a sealing layer (a2), preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one ink-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted inkjet-printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the ink-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01;
An organic light emitting display comprising: a plurality of pixels formed on a substrate , each pixel comprising a first electrode , an organic light emitting layer and a second electrode ; wherein the organic light emitting display comprises a plurality of light emitting regions and a plurality of non-light emitting regions, each non-light emitting region being arranged between adjacent ones of the light emitting regions; wherein each pixel comprises: a pixel defining layer formed on the first electrode ; and a recess formed at a non-light emitting region of the pixel defining layer , wherein the second electrode is formed on the entire surface of the substrate and in the recess as well such that the second electrode includes a portion disposed in the recess on an inner wall of the recess , the portion extending along the recess of the pixel defining layer , characterized in that a conductive material is disposed on the portion of the second electrode in the recess such that the second electrode separates the conductive material from the pixel defining layer , wherein the conductive material is a dried conductive ink, wherein the recess extends as continuous segment along a plurality of pixels. a plurality of pixels formed on a substrate , each pixel comprising a first electrode , an organic light emitting layer and a second electrode ; wherein the organic light emitting display comprises a plurality of light emitting regions and a plurality of non-light emitting regions, each non-light emitting region being arranged between adjacent ones of the light emitting regions; wherein each pixel comprises: a pixel defining layer formed on the first electrode ; and a recess formed at a non-light emitting region of the pixel defining layer , wherein the second electrode is formed on the entire surface of the substrate and in the recess as well such that the second electrode includes a portion disposed in the recess on an inner wall of the recess , the portion extending along the recess of the pixel defining layer , characterized in that a conductive material is disposed on the portion of the second electrode in the recess such that the second electrode separates the conductive material from the pixel defining layer , wherein the conductive material is a dried conductive ink, wherein the recess extends as continuous segment along a plurality of pixels. a pixel defining layer formed on the first electrode ; and a recess formed at a non-light emitting region of the pixel defining layer , wherein the second electrode is formed on the entire surface of the substrate and in the recess as well such that the second electrode includes a portion disposed in the recess on an inner wall of the recess , the portion extending along the recess of the pixel defining layer , characterized in that a conductive material is disposed on the portion of the second electrode in the recess such that the second electrode separates the conductive material from the pixel defining layer , wherein the conductive material is a dried conductive ink, wherein the recess extends as continuous segment along a plurality of pixels.
Method for operating a combined casting/rolling installation in which - a casting machine of the combined casting/rolling installation is used to produce a cast product and - a rolling mill of the combined casting/rolling installation is used to produce a rolled product from the cast product , wherein - the combined casting/rolling installation has a control device with a measuring unit and a controller , - the measuring unit detects a rolled-product property, generates a measurement signal dependent on the rolled-product property and transmits the measurement signal to the controller , - the controller uses the measurement signal to generate a control signal for the casting machine on the basis of a control algorithm and transmits the control signal to the casting machine and - the casting machine uses the control signal to set a casting parameter, - wherein the rolled-product property that is detected by the measuring unit is a temperature profile of the rolled product in the width direction thereof, - wherein the casting parameter that is set by the casting machine using the control signal is a cooling parameter of the casting machine , and - wherein the said cooling parameter is a cooling parameter of a secondary cooling device of the casting machine . - a casting machine of the combined casting/rolling installation is used to produce a cast product and - a rolling mill of the combined casting/rolling installation is used to produce a rolled product from the cast product , wherein - the combined casting/rolling installation has a control device with a measuring unit and a controller , - the measuring unit detects a rolled-product property, generates a measurement signal dependent on the rolled-product property and transmits the measurement signal to the controller , - the controller uses the measurement signal to generate a control signal for the casting machine on the basis of a control algorithm and transmits the control signal to the casting machine and - the casting machine uses the control signal to set a casting parameter, - wherein the rolled-product property that is detected by the measuring unit is a temperature profile of the rolled product in the width direction thereof, - wherein the casting parameter that is set by the casting machine using the control signal is a cooling parameter of the casting machine , and - wherein the said cooling parameter is a cooling parameter of a secondary cooling device of the casting machine .
A pressure sensor , comprising: a laminated piezoelectric device comprising a stacked body in which piezoelectric layers and internal electrodes are alternately laminated; and a case which encloses the laminated piezoelectric device , the case comprising a case main body and a first projection protruding inwardly from the case main body , the first projection comprising an end face which abuts on an end face in a stacking direction of the stacked body , and is located inside an outer periphery of the end face of the stacked body , wherein the internal electrodes comprise a first electrode and a second electrode , the stacked body comprises an active portion in which the first electrode and the second electrode are mutually overlapped with each other in the stacking direction; and an inactive portion in which the first electrode and the second electrode are not mutually overlapped with each other in the stacking direction, and which surrounds the entire active portion , and the end face of the first projection is overlapped with the active portion , and is overlapped with part of the inactive portion , as viewed in the stacking direction. a laminated piezoelectric device comprising a stacked body in which piezoelectric layers and internal electrodes are alternately laminated; and a case which encloses the laminated piezoelectric device , the case comprising a case main body and a first projection protruding inwardly from the case main body , the first projection comprising an end face which abuts on an end face in a stacking direction of the stacked body , and is located inside an outer periphery of the end face of the stacked body , wherein the internal electrodes comprise a first electrode and a second electrode , the stacked body comprises an active portion in which the first electrode and the second electrode are mutually overlapped with each other in the stacking direction; and an inactive portion in which the first electrode and the second electrode are not mutually overlapped with each other in the stacking direction, and which surrounds the entire active portion , and the end face of the first projection is overlapped with the active portion , and is overlapped with part of the inactive portion , as viewed in the stacking direction.
A wireless communication method, comprising: incorrectly receiving , by a terminal device, first data in a first cell, wherein the first cell is a first primary cell; sending , by the terminal device, first indication information in a second cell, wherein the second cell is a secondary cell or a second primary cell, and the first indication information is used to indicate that the first data is incorrectly received in the first cell, or is used to request transmission of the first data in the second cell; and receiving, by the terminal device, the first data in the second cell; characterized in that the terminal device determines based on signal quality of the first data received in the first cell, whether the first data is incorrectly received; wherein: when the signal quality of the first data is lower than a first preset threshold, the terminal device determines that the first data is incorrectly received; and when the signal quality of the first data is higher than a second preset threshold, the terminal device determines that the first data is correctly received. incorrectly receiving , by a terminal device, first data in a first cell, wherein the first cell is a first primary cell; sending , by the terminal device, first indication information in a second cell, wherein the second cell is a secondary cell or a second primary cell, and the first indication information is used to indicate that the first data is incorrectly received in the first cell, or is used to request transmission of the first data in the second cell; and receiving, by the terminal device, the first data in the second cell; characterized in that the terminal device determines based on signal quality of the first data received in the first cell, whether the first data is incorrectly received; wherein: when the signal quality of the first data is lower than a first preset threshold, the terminal device determines that the first data is incorrectly received; and when the signal quality of the first data is higher than a second preset threshold, the terminal device determines that the first data is correctly received. when the signal quality of the first data is lower than a first preset threshold, the terminal device determines that the first data is incorrectly received; and when the signal quality of the first data is higher than a second preset threshold, the terminal device determines that the first data is correctly received.
A durable polymer composition for thin coatings, the durable polymer composition comprising a polyester component with one or more polyester polyols having a hydroxyl value of 50 to 300 and a polyurea component having a polyester-polyol grafted polyurea with a hydroxyl value of 20 to 100.
A method of bonding polymer components comprising: additively manufacturing a first polymer component having a first mating feature ; additively manufacturing a second polymer component having a second mating feature , the second mating feature designed to fit with the first mating feature ; and joining the first and second polymer components with an adhesive to form a mechanical lock wherein the mechanical lock comprises the first mating feature , the second mating feature and the adhesive , characterized in that said method further comprises: additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper , buried taper and tapered edges . additively manufacturing a first polymer component having a first mating feature ; additively manufacturing a second polymer component having a second mating feature , the second mating feature designed to fit with the first mating feature ; and joining the first and second polymer components with an adhesive to form a mechanical lock wherein the mechanical lock comprises the first mating feature , the second mating feature and the adhesive , characterized in that said method further comprises: additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper , buried taper and tapered edges . additively manufacturing an undercut wall structure on the first mating feature and additively manufacturing an undercut wall structure on the second mating feature, and manufacturing an edge protective bumper , buried taper and tapered edges .
A method for control of oxygen concentration in the coolant of a reactor plant, the reactor plant comprising a reactor, a coolant arranged in the reactor a gas system with outlet to the reactor into a space near the coolant, a mass exchange apparatus mounted in the coolant containing solid phase oxides of the coolant and designed to pass the coolant through it, a gas disperser mounted partially in the coolant and partially in the space near the coolant and designed to supply gas from the space near the coolant into the coolant, and an oxygen concentration sensor in the coolant, wherein method comprising the following steps: - estimating of oxygen concentration in the coolant based on the data from the oxygen concentration sensor in the coolant; - comparing the estimate of oxygen concentration in the coolant with the allowable value; - estimating of the change of oxygen concentration in the coolant; - if the estimated change of oxygen concentration in the coolant shows a concentration reduction, the value and/or the rate of reduction with the corresponding threshold value is compared ; - if the estimated value of oxygen concentration in the coolant is less than the allowable value and the estimated value and/or the rate of oxygen concentration reduction is less than the corresponding threshold value, the mass exchange apparatus is activated ; - if the estimated value of oxygen concentration in the coolant is less than the allowable value and the estimated value and/or the rate of oxygen concentration reduction is more than the corresponding threshold value, the oxygen-containing gas is supplied to the space near the coolant from the gas system, and/or the gas disperser is activated . - estimating of oxygen concentration in the coolant based on the data from the oxygen concentration sensor in the coolant; - comparing the estimate of oxygen concentration in the coolant with the allowable value; - estimating of the change of oxygen concentration in the coolant; - if the estimated change of oxygen concentration in the coolant shows a concentration reduction, the value and/or the rate of reduction with the corresponding threshold value is compared ; - if the estimated value of oxygen concentration in the coolant is less than the allowable value and the estimated value and/or the rate of oxygen concentration reduction is less than the corresponding threshold value, the mass exchange apparatus is activated ; - if the estimated value of oxygen concentration in the coolant is less than the allowable value and the estimated value and/or the rate of oxygen concentration reduction is more than the corresponding threshold value, the oxygen-containing gas is supplied to the space near the coolant from the gas system, and/or the gas disperser is activated .