mhurhangee/patent-ind-claim-en huggingface dataset:
A foam comprising: 55 to 98 wt. % polyamide; and 2 to 45 wt. % of ionomer comprising a zinc neutralized ethylene acid copolymer, wherein the zinc neutralized ethylene acid copolymer is the polymerized reaction product of ethylene monomer, monocarboxylic acid monomer, and unsaturated dicarboxylic acid monomer, and wherein the zinc neutralized ethylene acid copolymer comprises 2 to 20 wt.% of unsaturated dicarboxylic acid monomer, based on the total wt.% of the monomers present in the zinc neutralized ethylene acid copolymer wherein 30 to 70 mole percent of total acid units of the ionomer are neutralized. 55 to 98 wt. % polyamide; and 2 to 45 wt. % of ionomer comprising a zinc neutralized ethylene acid copolymer, wherein the zinc neutralized ethylene acid copolymer is the polymerized reaction product of ethylene monomer, monocarboxylic acid monomer, and unsaturated dicarboxylic acid monomer, and wherein the zinc neutralized ethylene acid copolymer comprises 2 to 20 wt.% of unsaturated dicarboxylic acid monomer, based on the total wt.% of the monomers present in the zinc neutralized ethylene acid copolymer wherein 30 to 70 mole percent of total acid units of the ionomer are neutralized. wherein the zinc neutralized ethylene acid copolymer is the polymerized reaction product of ethylene monomer, monocarboxylic acid monomer, and unsaturated dicarboxylic acid monomer, and wherein the zinc neutralized ethylene acid copolymer comprises 2 to 20 wt.% of unsaturated dicarboxylic acid monomer, based on the total wt.% of the monomers present in the zinc neutralized ethylene acid copolymer wherein 30 to 70 mole percent of total acid units of the ionomer are neutralized.
A fixing device (20; 20S) for fixing an image on a recording medium, comprising: a fixing rotary body rotatable in a predetermined direction of rotation; a heater disposed opposite and heating the fixing rotary body ; an opposed body contacting the fixing rotary body to form a fixing nip (N) therebetween through which a recording medium is conveyed; a heat shield (27; 27S) movable in a circumferential direction of the fixing rotary body and interposed between the heater and the fixing rotary body to shield the fixing rotary body from the heater ; and a driver connected to the heat shield (27; 27S) to drive and move the heat shield (27; 27S) between a shield position where the heat shield (27; 27S) is interposed between the heater and the fixing rotary body to shield the fixing rotary body from the heater and a retracted position where the heat shield (27; 27S) is retracted from the shield position, characterized in that the fixing device (20; 20S) further comprises: a reinforcement (53; 53U) mounted on a long edge of the heat shield (27; 27S), wherein the reinforcement (53; 53U) includes an edge portion (270; 270U) contiguous to the heat shield (27; 27S) and extending in a longitudinal direction of the heat shield (27; 27S) substantially throughout a long length of the heat shield (27; 27S), the edge portion (270; 270U) being bent, wherein the edge portion (270; 270 U) is bent in a direction perpendicular to the longitudinal direction of the heat shield (27; 27S). a fixing rotary body rotatable in a predetermined direction of rotation; a heater disposed opposite and heating the fixing rotary body ; an opposed body contacting the fixing rotary body to form a fixing nip (N) therebetween through which a recording medium is conveyed; a heat shield (27; 27S) movable in a circumferential direction of the fixing rotary body and interposed between the heater and the fixing rotary body to shield the fixing rotary body from the heater ; and a driver connected to the heat shield (27; 27S) to drive and move the heat shield (27; 27S) between a shield position where the heat shield (27; 27S) is interposed between the heater and the fixing rotary body to shield the fixing rotary body from the heater and a retracted position where the heat shield (27; 27S) is retracted from the shield position, characterized in that the fixing device (20; 20S) further comprises: a reinforcement (53; 53U) mounted on a long edge of the heat shield (27; 27S), wherein the reinforcement (53; 53U) includes an edge portion (270; 270U) contiguous to the heat shield (27; 27S) and extending in a longitudinal direction of the heat shield (27; 27S) substantially throughout a long length of the heat shield (27; 27S), the edge portion (270; 270U) being bent, wherein the edge portion (270; 270 U) is bent in a direction perpendicular to the longitudinal direction of the heat shield (27; 27S).
A computer-implemented method for predicting material properties in an Additive Manufacturing (AM) process, the method comprising: receiving sensor data during the build of a metallic component using the AM process; characterized by receiving ICME (Integrated Computational Materials Engineering) model output data for building the component, the ICME model output data including predicted melt pool dimensions time-series data, predicted melt temperature time-series data, and predicted defects forming as a result of melt pool evolution and movement; and estimating one or more of porosity size, porosity distribution, surface roughness, residual stresses, and strength of at least a portion of the metallic component using a Deep Neural Network, DNN, by applying the received sensor data and the received ICME model output data as inputs to the DNN , wherein the DNN is trained using sensor data from the build of a second component, ICME model output data for the build of the second component, and post-build inspection data of the second component to estimate the one or more of porosity size, porosity distribution, surface roughness, residual stresses, and strength of at least a portion of the metallic component . receiving sensor data during the build of a metallic component using the AM process; characterized by receiving ICME (Integrated Computational Materials Engineering) model output data for building the component, the ICME model output data including predicted melt pool dimensions time-series data, predicted melt temperature time-series data, and predicted defects forming as a result of melt pool evolution and movement; and estimating one or more of porosity size, porosity distribution, surface roughness, residual stresses, and strength of at least a portion of the metallic component using a Deep Neural Network, DNN, by applying the received sensor data and the received ICME model output data as inputs to the DNN , wherein the DNN is trained using sensor data from the build of a second component, ICME model output data for the build of the second component, and post-build inspection data of the second component to estimate the one or more of porosity size, porosity distribution, surface roughness, residual stresses, and strength of at least a portion of the metallic component .
Charging apparatus having a variable turbine geometry , in particular an exhaust gas turbocharger for a motor vehicle, having guide vanes which are mounted rotatably in a vane bearing ring and have a top side that runs in convex fashion from a profile nose to a profile end , wherein a concave recess is arranged on a bottom side of the guide vane on the profile nose , characterised in that the bottom side runs in concave fashion from the concave recess to the profile end , and that a radius of curvature of the bottom side is greater than a radius of curvature R of the recess .
An antifouling coating composition containing a copolymer A and an antifouling agent, wherein: the copolymer A is a copolymer of a monomer (a) and an ethylenically unsaturated monomer (b) other than the monomer (a); the monomer (a) is constituted of a monomer (a1) and a monomer (a2); the monomer (a1) is represented by general formula ; the monomer (a2) is represented by general formula ; a content of the monomer (a1) in the monomer (a) is 50 to 80 mass%; in general formula , R 1 represents a hydrogen atom or a methyl group, R 2 represents a hydrogen atom, a methyl group, or a phenyl group, and R 3 represents an alkyl group which may be substituted with an alkoxy group having 1 to 8 carbon atoms or a phenyl group, or a phenyl group, the alkyl group having 1 to 8 carbon atoms; and in general formula , R 4 represents a hydrogen atom or a methyl group, R 5 represents a hydrogen atom, a methyl group, or a phenyl group, R 6 represents an alkyl group which may be substituted with an alkoxy group having 1 to 8 carbon atoms or a phenyl group, or a phenyl group, the alkyl group having 1 to 8 carbon atoms, and n represents an integer of 2 to 10. the copolymer A is a copolymer of a monomer (a) and an ethylenically unsaturated monomer (b) other than the monomer (a); the monomer (a) is constituted of a monomer (a1) and a monomer (a2); the monomer (a1) is represented by general formula ; the monomer (a2) is represented by general formula ; a content of the monomer (a1) in the monomer (a) is 50 to 80 mass%; in general formula , R 1 represents a hydrogen atom or a methyl group, R 2 represents a hydrogen atom, a methyl group, or a phenyl group, and R 3 represents an alkyl group which may be substituted with an alkoxy group having 1 to 8 carbon atoms or a phenyl group, or a phenyl group, the alkyl group having 1 to 8 carbon atoms; and in general formula , R 4 represents a hydrogen atom or a methyl group, R 5 represents a hydrogen atom, a methyl group, or a phenyl group, R 6 represents an alkyl group which may be substituted with an alkoxy group having 1 to 8 carbon atoms or a phenyl group, or a phenyl group, the alkyl group having 1 to 8 carbon atoms, and n represents an integer of 2 to 10.
Apparatus for deep marking of solid materials, which apparatus comprises: a. a scan head laser constructed to move a laser beam along x and y axes; b. a nozzle for the emission of a gas, wherein the nozzle has a rectangular section having a longer side; and being characterised by : c. an engine connected with the nozzle, which engine is capable of moving the nozzle along the x axis synchronously with the movement of the laser beam, wherein the longer side of the rectangle entirely covers the breadth of the marking along y axis and has a size comprised between 10 and 100 mm. a. a scan head laser constructed to move a laser beam along x and y axes; b. a nozzle for the emission of a gas, wherein the nozzle has a rectangular section having a longer side; and being characterised by : c. an engine connected with the nozzle, which engine is capable of moving the nozzle along the x axis synchronously with the movement of the laser beam, wherein the longer side of the rectangle entirely covers the breadth of the marking along y axis and has a size comprised between 10 and 100 mm.
A field device comprising: a process communication module configured to communicate in accordance with a process industry standard communication protocol; a graphical display ; and a controller operably coupled to process communication module and the graphical display , the controller being configured to responsively cause the graphical display to generate a machine-readable display output ; wherein the controller is configured to cause the graphical display to generate a series of machine-readable display outputs ; characterized in that the field device is configured to display a next machine-readable image in a sequence of machine-readable images based on a photosensitive diode detecting a flash of light. a process communication module configured to communicate in accordance with a process industry standard communication protocol; a graphical display ; and a controller operably coupled to process communication module and the graphical display , the controller being configured to responsively cause the graphical display to generate a machine-readable display output ; wherein the controller is configured to cause the graphical display to generate a series of machine-readable display outputs ; characterized in that the field device is configured to display a next machine-readable image in a sequence of machine-readable images based on a photosensitive diode detecting a flash of light.
Household appliance for cooking and/or baking food stuffs or bakery ware comprising a heatable cavity for placing the food stuffs or bakery ware , an access door for accessing the cavity , a compartment located exterior of said cavity , said compartment being in fluid communication with said cavity by at least one duct , a control unit , at least one first sensor located in the compartment and being connected to the control unit , and wherein the at least one first sensor is capable of measuring a first input value in said compartment , wherein said at least one first sensor is a humidity sensor and said first input value is a humidity value within said compartment , and at least one second sensor connected to the control unit and capable of measuring a second input value, wherein said second input value is a temperature value, characterized in that said control unit comprises a matrix of humidity index values, said matrix being deposited in said control unit , and wherein said control unit is configured to correlate said first input value of said at least one first sensor and said second input value of said at least one second sensor to a humidity index value from said matrix. a heatable cavity for placing the food stuffs or bakery ware , an access door for accessing the cavity , a compartment located exterior of said cavity , said compartment being in fluid communication with said cavity by at least one duct , a control unit , at least one first sensor located in the compartment and being connected to the control unit , and wherein the at least one first sensor is capable of measuring a first input value in said compartment , wherein said at least one first sensor is a humidity sensor and said first input value is a humidity value within said compartment , and at least one second sensor connected to the control unit and capable of measuring a second input value, wherein said second input value is a temperature value, characterized in that said control unit comprises a matrix of humidity index values, said matrix being deposited in said control unit , and wherein said control unit is configured to correlate said first input value of said at least one first sensor and said second input value of said at least one second sensor to a humidity index value from said matrix.
A method of filling a chamber with buoyant spheres , comprising: placing a mass of the spheres into a mould cavity ; in the mould cavity , optimising packing of the spheres to form an optimally-packed mass and then fixing the spheres in the optimally-packed mass to form a block (28; 68; 72); characterised in that the method comprises the steps of transferring the block (28; 68; 72) from the mould cavity into the chamber while the spheres of the block (28; 68; 72) remain fixed in the optimally-packed mass; and flooding the chamber in use to surround the spheres with water. placing a mass of the spheres into a mould cavity ; in the mould cavity , optimising packing of the spheres to form an optimally-packed mass and then fixing the spheres in the optimally-packed mass to form a block (28; 68; 72); characterised in that the method comprises the steps of transferring the block (28; 68; 72) from the mould cavity into the chamber while the spheres of the block (28; 68; 72) remain fixed in the optimally-packed mass; and flooding the chamber in use to surround the spheres with water.
A rubber-based skin adhesive comprising: at least one rubber component; at least one tackifier; at least one oil; and at least one absorbent, wherein the adhesive exhibits a soft, gel-like consistency and is repositionable on skin, comprising about 15% to about 20% of the rubber component(s), about 20% to about 35% of the tackifier(s), about 20% to about 45% of the oil(s), and about 20% to about 35% of the absorbent(s). at least one rubber component; at least one tackifier; at least one oil; and at least one absorbent, wherein the adhesive exhibits a soft, gel-like consistency and is repositionable on skin, comprising about 15% to about 20% of the rubber component(s), about 20% to about 35% of the tackifier(s), about 20% to about 45% of the oil(s), and about 20% to about 35% of the absorbent(s).
An anti-integrin alpha-2 antibody or antigen-binding fragment thereof that binds both of SEQ ID NO: 32 and SEQ ID NO: 33.
Method for generating a saturation pulse for spectral saturation in magnetic resonance tomography, wherein the method has steps as follows: - specifying or ascertaining (S2) a first resonance frequency of an MR spectrum of a first substance, - specifying or ascertaining (S3) a first saturation frequency in a predefined range around a second resonance frequency of the MR spectrum of a second substance, and - generating (S6) a saturation pulse which causes no saturation of the first substance at the first resonance frequency, wherein - the saturation pulse has a first spectral peak for saturation of the second substance at the first saturation frequency, wherein - the saturation pulse has a second spectral peak for saturation of the second substance at a second saturation frequency, which second saturation frequency differs from the first saturation frequency, in the predefined range, characterised in that the saturation pulse has, in addition to the first and second spectral peak, at least one further spectral peak for saturation of the second substance. - specifying or ascertaining (S2) a first resonance frequency of an MR spectrum of a first substance, - specifying or ascertaining (S3) a first saturation frequency in a predefined range around a second resonance frequency of the MR spectrum of a second substance, and - generating (S6) a saturation pulse which causes no saturation of the first substance at the first resonance frequency, wherein - the saturation pulse has a first spectral peak for saturation of the second substance at the first saturation frequency, - the saturation pulse has a second spectral peak for saturation of the second substance at a second saturation frequency, which second saturation frequency differs from the first saturation frequency, in the predefined range,
A seal apparatus for use between joined pieces in a flow line that is operative to contain fluid therein, comprising: (A) a retaining ring comprising a metal core having opposing side surfaces, wherein each of the opposing side surfaces has a dielectric material (66, 204 , 204 ) disposed thereon and an inner diameter opening formed therein, the retaining ring comprising: (i) an axial lock feature forming a circumferential groove in the dielectric material on the inner diameter opening, and (ii) a radial lock feature forming a circumferential rim in the core about the inner diameter opening; and (B) an inner diameter seal element having an inner seal surface , an outer seal surface, and a locking portion, the locking portion comprising: (i) an axial lock protrusion interlocked with the axial lock feature, and (ii) a hook interlocked with said radial lock feature, wherein the interlocking of the axial lock protrusion with the axial lock feature and the hook with the radial lock feature substantially prevents relative axial and radial movement between the retaining ring and the inner diameter seal element. (A) a retaining ring comprising a metal core having opposing side surfaces, wherein each of the opposing side surfaces has a dielectric material (66, 204 , 204 ) disposed thereon and an inner diameter opening formed therein, the retaining ring comprising: (i) an axial lock feature forming a circumferential groove in the dielectric material on the inner diameter opening, and (ii) a radial lock feature forming a circumferential rim in the core about the inner diameter opening; and (i) an axial lock feature forming a circumferential groove in the dielectric material on the inner diameter opening, and (ii) a radial lock feature forming a circumferential rim in the core about the inner diameter opening; and (B) an inner diameter seal element having an inner seal surface , an outer seal surface, and a locking portion, the locking portion comprising: (i) an axial lock protrusion interlocked with the axial lock feature, and (ii) a hook interlocked with said radial lock feature, wherein the interlocking of the axial lock protrusion with the axial lock feature and the hook with the radial lock feature substantially prevents relative axial and radial movement between the retaining ring and the inner diameter seal element. (i) an axial lock protrusion interlocked with the axial lock feature, and (ii) a hook interlocked with said radial lock feature, wherein the interlocking of the axial lock protrusion with the axial lock feature and the hook with the radial lock feature substantially prevents relative axial and radial movement between the retaining ring and the inner diameter seal element.
Regulating assembly , for a watch movement, comprising a cage , intended to be mounted rotatably on a frame element of the watch movement by means of a cage bearing , and bearing - a balance associated with a return spring and mounted on the said cage so as to be able to oscillate with reference to the latter, - an escapement comprising an escape wheel , arranged so that it can be periodically locked and released according to the oscillations of the balance , to transmit impulses to the latter, as well as an escape pinion , integral with said escape wheel and intended to be driven in rotation by a mechanical energy source of the clock movement, - a drive toothing intended to present a kinematic connection with the mechanical energy source of the clock movement, said cage being integral with a first ring of said cage bearing arranged so as to be able to pivot in relation to a second ring of said cage bearing , said second ring being designed to be made integral with the frame element of the watch movement and bearing a fixed toothing arranged to engage with said escape pinion , the said first and second rings defining between them a raceway in which rollers or balls are housed, characterized in that said raceway has a radius greater than the radius of said fixed toothing . - a balance associated with a return spring and mounted on the said cage so as to be able to oscillate with reference to the latter, - an escapement comprising an escape wheel , arranged so that it can be periodically locked and released according to the oscillations of the balance , to transmit impulses to the latter, as well as an escape pinion , integral with said escape wheel and intended to be driven in rotation by a mechanical energy source of the clock movement, - a drive toothing intended to present a kinematic connection with the mechanical energy source of the clock movement, said cage being integral with a first ring of said cage bearing arranged so as to be able to pivot in relation to a second ring of said cage bearing , said second ring being designed to be made integral with the frame element of the watch movement and bearing a fixed toothing arranged to engage with said escape pinion , the said first and second rings defining between them a raceway in which rollers or balls are housed, characterized in that said raceway has a radius greater than the radius of said fixed toothing .