mhurhangee/patent-ind-claim-en huggingface dataset:
A caster wheel assembly , comprising: a caster housing provided with an axial channel , a spindle shaft configured to be received by the channel of the caster housing , which spindle shaft is inclined relative to a vertical plane when mounted in the caster housing and the caster wheel assembly is in use resting on a horizontal support, the caster housing and the spindle shaft being configured to rotate freely relative to each other, bearings configured to be mounted around the spindle shaft to facilitate relative rotation between the caster housing and the spindle shaft , a caster wheel fork having a wheel axle configured to be arranged offset relative to a central axis (A1) of the spindle shaft , to provide a trail functionality, and a height adjustment mechanism configured to adjust an axial position of the spindle shaft relative to the caster housing based on a rotational position of the spindle shaft in relation to the caster housing , wherein the height adjustment mechanism comprises a guide structure provided with an inclined guide surface configured to extend circumferentially around the spindle shaft , and a guide protrusion extending radially from a main body of the spindle shaft , wherein the guide protrusion and the inclined guide surface are configured to cooperate when the spindle shaft is rotated, to adjust the axial position of the spindle shaft inside the caster housing . a caster housing provided with an axial channel , a spindle shaft configured to be received by the channel of the caster housing , which spindle shaft is inclined relative to a vertical plane when mounted in the caster housing and the caster wheel assembly is in use resting on a horizontal support, the caster housing and the spindle shaft being configured to rotate freely relative to each other, bearings configured to be mounted around the spindle shaft to facilitate relative rotation between the caster housing and the spindle shaft , a caster wheel fork having a wheel axle configured to be arranged offset relative to a central axis (A1) of the spindle shaft , to provide a trail functionality, and a height adjustment mechanism configured to adjust an axial position of the spindle shaft relative to the caster housing based on a rotational position of the spindle shaft in relation to the caster housing , wherein the height adjustment mechanism comprises a guide structure provided with an inclined guide surface configured to extend circumferentially around the spindle shaft , and a guide protrusion extending radially from a main body of the spindle shaft , wherein the guide protrusion and the inclined guide surface are configured to cooperate when the spindle shaft is rotated, to adjust the axial position of the spindle shaft inside the caster housing .
A film comprising: a first phase comprising an acrylate and quantum dots, and a second phase comprising an epoxy or a polyurethane, wherein regions of the first phase are dispersed throughout the second phase, and the film is a cured emulsion. a first phase comprising an acrylate and quantum dots, and a second phase comprising an epoxy or a polyurethane,
A tarpaulin structure for a substructure, such as a heavy goods vehicle, trailer, semitrailer, railway carriage, tipper truck or container, comprising a top frame , and a tarpaulin composed of weather-resistant material, wherein the top frame has a multiplicity of beams which have, on the ends, in each case a carriage which is displaceable along a guide , wherein, to each pair of oppositely situated carriages (32; 32'), there is pivotably attached at least one bow which, together with a bow of an adjacent carriage pair , forms a tarpaulin folding aid, wherein the bows of the tarpaulin folding aid are connected to one another, wherein the connected bows are connected by way of a pivot angle limiter which permits only a limited pivoting movement of the bows , characterized in that the pivot angle limiter has two receptacles for receiving, in parallel, two cylindrical sections of the bows , and that the cylindrical sections have a slot-like recess by way of which a part which protrudes radially from the bow is captively held. a top frame , and a tarpaulin composed of weather-resistant material,
An electronic device including a digital camera function and comprising: a panel configured to display an image corresponding to a captured image by the imaging unit of said digital camera ; a sensing unit configured to sense an area of the panel over which an operation member is held without the operation member touching the panel ; and a control unit configured to control display processing of the image to be displayed based on the area sensed without the operation member touching the panel , wherein the sensing unit senses the area over which the operation member is held by determining whether the operation member is an operator's finger or palm. a panel configured to display an image corresponding to a captured image by the imaging unit of said digital camera ; a sensing unit configured to sense an area of the panel over which an operation member is held without the operation member touching the panel ; and a control unit configured to control display processing of the image to be displayed based on the area sensed without the operation member touching the panel , wherein the sensing unit senses the area over which the operation member is held by determining whether the operation member is an operator's finger or palm.
Method for two-dimensional reconstruction of wave fronts of light in an optical system comprising: measuring the distribution function of the light intensity in at least two images at different optical planes of the optical system having an optical path difference, wherein said measuring comprises: determining a plurality of one-dimensional cumulative distribution functions of the light intensity in each plane over a range of different angles within each plane, matching the determined one-dimensional cumulative distribution functions of the different optical planes to derive two-dimensional wave-front slopes estimates in a plane , e.g. the midway plane, located between said different optical planes, and integrating said wave-front slopes estimates to reconstruct the two-dimensional shape of the wave front in said plane located between said different optical planes. determining a plurality of one-dimensional cumulative distribution functions of the light intensity in each plane over a range of different angles within each plane, matching the determined one-dimensional cumulative distribution functions of the different optical planes to derive two-dimensional wave-front slopes estimates in a plane , e.g. the midway plane, located between said different optical planes, and integrating said wave-front slopes estimates to reconstruct the two-dimensional shape of the wave front in said plane located between said different optical planes.
A thermoplastic composition comprising: (a) 15 wt% to 95 wt% polymer component comprising 20 wt% to 85 wt% poly(p-phenylene oxide), 10 wt% to 65 wt% flow promoter, and greater than 0 wt% to 30 wt% impact modifier; (b) 2 wt% to 50 wt% of a laser activatable additive having a core-shell structure, wherein the core comprises an inorganic filler and the shell comprises a laser activatable component; and (c) 3 wt% to 70 wt% inorganic fillers, wherein the weight percent values of (a), (b) and (c) are based on the total weight of the composition and the combined weight percent value of all the components does not exceed 100 wt%, and wherein the flow promoter comprises nylon, polyphthalamide, polystyrene, polypropylene and blends thereof. (a) 15 wt% to 95 wt% polymer component comprising 20 wt% to 85 wt% poly(p-phenylene oxide), 10 wt% to 65 wt% flow promoter, and greater than 0 wt% to 30 wt% impact modifier; (b) 2 wt% to 50 wt% of a laser activatable additive having a core-shell structure, wherein the core comprises an inorganic filler and the shell comprises a laser activatable component; and (c) 3 wt% to 70 wt% inorganic fillers, wherein the weight percent values of (a), (b) and (c) are based on the total weight of the composition and the combined weight percent value of all the components does not exceed 100 wt%, and wherein the flow promoter comprises nylon, polyphthalamide, polystyrene, polypropylene and blends thereof.
A medical image processing method comprising: obtaining a plurality of actual medical images (510; 810) corresponding to a plurality of patients and including lesions (S1110); obtaining a first neural network , which is a trained deep neural network based on the plurality of actual medical images (510; 810), for predicting a variation in a lesion over time, a lesion being included in a first medical image of the plurality of actual medical images, wherein the first medical image is obtained at a first time point (S1120); and generating by inputting the first medical image to the first neural network , a second medical image which is an artificial lesion image representing a state of the lesion at a second time point different from the first time point (S1130). obtaining a plurality of actual medical images (510; 810) corresponding to a plurality of patients and including lesions (S1110); obtaining a first neural network , which is a trained deep neural network based on the plurality of actual medical images (510; 810), for predicting a variation in a lesion over time, a lesion being included in a first medical image of the plurality of actual medical images, wherein the first medical image is obtained at a first time point (S1120); and generating by inputting the first medical image to the first neural network , a second medical image which is an artificial lesion image representing a state of the lesion at a second time point different from the first time point (S1130).
Process for preparing a hydrophobic alkali soluble emulsion polymer comprising the emulsion polymerization of the following monomer components: a) from 40 wt.% to 50 wt.%, based on the total weight of the polymer, of an α,β-ethylenically unsaturated carboxylic acid monomer; b) from 40 wt.% to 50 wt.%, based on the total weight of the polymer, of an α,β-ethylenically unsaturated nonionic monomer; c) from 5 wt.% to 8 wt.%, based on the total weight of the polymer, of a nonionic macromonomer which has the formula H 2 C=C(R)CO 2 (CH 2 CH 2 O) n (CH(R 1 )CH 2 O) m R 2 , wherein R is H or CH 3 , R 1 is C 1 -C 2 alkyl; R 2 is C 8 -C 30 alkyl, C 8 -C 16 alkyl phenyl or C 13 -C 36 aralkyl phenyl; n is an integer from 6 to 100 and m is an integer from 0 to 50, provided that n≥m and m+n is from 6 to 100; and d) from 1 wt.% to 3 wt.%, based on the total weight of the polymer, of a methyl polyglycol acrylic acid ester. a) from 40 wt.% to 50 wt.%, based on the total weight of the polymer, of an α,β-ethylenically unsaturated carboxylic acid monomer; b) from 40 wt.% to 50 wt.%, based on the total weight of the polymer, of an α,β-ethylenically unsaturated nonionic monomer; c) from 5 wt.% to 8 wt.%, based on the total weight of the polymer, of a nonionic macromonomer which has the formula H 2 C=C(R)CO 2 (CH 2 CH 2 O) n (CH(R 1 )CH 2 O) m R 2 , wherein R is H or CH 3 , R 1 is C 1 -C 2 alkyl; R 2 is C 8 -C 30 alkyl, C 8 -C 16 alkyl phenyl or C 13 -C 36 aralkyl phenyl; n is an integer from 6 to 100 and m is an integer from 0 to 50, provided that n≥m and m+n is from 6 to 100; and d) from 1 wt.% to 3 wt.%, based on the total weight of the polymer, of a methyl polyglycol acrylic acid ester.
A method for quantifying expression level of a target gene in a FFPE (formalin-fixed, paraffin embedded) tissue sample of human breast cancer tissues, comprising: 1) synthesizing cDNA from RNA of a subject; 2) performing real-time PCR to amplify the target gene and Endogenous Reference Gene OAZ1 using a pair of primers and/or probes with the cDNA serving as a template; and 3) normalizing an expression level of the target gene to that of the endogenous reference gene of step 2). 1) synthesizing cDNA from RNA of a subject; 2) performing real-time PCR to amplify the target gene and Endogenous Reference Gene OAZ1 using a pair of primers and/or probes with the cDNA serving as a template; and 3) normalizing an expression level of the target gene to that of the endogenous reference gene of step 2).
An elastomeric composition, comprising: - from 0.1 to 20 phr graphite nanoparticles; - from 1 to 99 wt% of at least one elastomer component comprising a random copolymer having at least one C4 to C7 isomonoolefin derived unit and a halomethylstyrene unit which is a p-halomethylstyrene; and - 10 to 200 phr of at least one filler that is not graphite. - from 0.1 to 20 phr graphite nanoparticles; - from 1 to 99 wt% of at least one elastomer component comprising a random copolymer having at least one C4 to C7 isomonoolefin derived unit and a halomethylstyrene unit which is a p-halomethylstyrene; and - 10 to 200 phr of at least one filler that is not graphite.
A process for improving the flow rate of an aqueous dispersion comprising (a) adding a natural polymer to the aqueous dispersion which is a polysaccharide selected from dextran, potato starch and glycosaminoglycans, and (b) then adding a synthetic polymer to the aqueous dispersion, wherein the natural polymer and the synthetic polymer is an amount effective to increase the flow rate of the aqueous dispersion. (a) adding a natural polymer to the aqueous dispersion which is a polysaccharide selected from dextran, potato starch and glycosaminoglycans, and (b) then adding a synthetic polymer to the aqueous dispersion,
Toilet active cleaning agent container which is formed by means of thermoforming and punching a film, having - a first portion having at least one first shell and at least one first flap , - a second portion having at least one second shell and at least one second flap , wherein the at least one first shell and the at least one second shell together form in the operating position at least one chamber, in which an active cleaning agent (G) can be placed, and - at least one first clamping unit on the at least one first flap and/or at least one second clamping unit on the at least one second flap , wherein the first and/or second clamping unit can be clamped in the operating position in or below an edge of a toilet bowl (W), characterised by - at least one hinge which is coupled in each case to the first flap and second flap and which consequently connects the at least one first shell and the at least one second shell so that the first and second portions can be pivoted towards each other and can be secured to each other in an operating position, and - a gap at least partially between the first portion and the second portion and at least partially between the at least one first shell and the at least one second shell when the first and second portions are in the operating position. - a first portion having at least one first shell and at least one first flap , - a second portion having at least one second shell and at least one second flap , wherein the at least one first shell and the at least one second shell together form in the operating position at least one chamber, in which an active cleaning agent (G) can be placed, and - at least one first clamping unit on the at least one first flap and/or at least one second clamping unit on the at least one second flap , wherein the first and/or second clamping unit can be clamped in the operating position in or below an edge of a toilet bowl (W), characterised by - at least one hinge which is coupled in each case to the first flap and second flap and which consequently connects the at least one first shell and the at least one second shell so that the first and second portions can be pivoted towards each other and can be secured to each other in an operating position, and - a gap at least partially between the first portion and the second portion and at least partially between the at least one first shell and the at least one second shell when the first and second portions are in the operating position.
A method for producing a coating (B) on a substrate (S), comprising a step of producing a colored coating (BC) on the substrate (S) by (i) applying a coating composition (C1), in particular directly, to at least part of a surface of the substrate (S), wherein the coating composition (C1) comprises at least one binder, at least one naturally occurring pigment having a D 50 particle size of 5 to 150 μm determined according to DIN EN ISO 1524:2020-11, and at least one solvent. (ii) optionally drying the applied coating composition (C1) to form a coating film, and (iii) curing the applied coating composition (C1) or the formed coating film, wherein the substrate is selected from plastics substrates, wood, synthetic textiles, synthetic leather goods, filaments made of polymeric materials, and foams. (i) applying a coating composition (C1), in particular directly, to at least part of a surface of the substrate (S), wherein the coating composition (C1) comprises at least one binder, at least one naturally occurring pigment having a D 50 particle size of 5 to 150 μm determined according to DIN EN ISO 1524:2020-11, and at least one solvent. (ii) optionally drying the applied coating composition (C1) to form a coating film, and (iii) curing the applied coating composition (C1) or the formed coating film,
Optical semiconductor amplifier , wherein a multiplicity of quantum dots (QD) are arranged in at least one quantum dot layer (21-24) of a semiconductor element of the semiconductor amplifier , wherein the semiconductor element has a preferred direction (X) lying in the quantum dot layer plane, and elongated quantum dots (QD) are present, each of which is longer in said preferred direction (X) than in a transverse direction (Y) perpendicular thereto and likewise lying in the quantum dot layer plane, wherein the beam amplification direction (SVR) of the semiconductor amplifier , which is defined by a fictitious connecting line (VL) between an input (A10) of the semiconductor amplifier , said input serving for radiating in input radiation (Se), and an output (A10) of the semiconductor amplifier , said output serving for outputting the amplified radiation (Sa), is arranged parallel or with a shift angle of less than 1° with respect to the transverse direction (Y), characterized in that for more than 50% of the elongated quantum dots (QD) the length (Lv) in the preferred direction (X) is between 1.8 times and 2.4 times the length (Lq) of the quantum dots (QD) in the transverse direction (Y) .
A toner container for use in an electrophotographic image forming device, comprising: a housing having a reservoir for storing toner; an input gear positioned on the housing 102) for mating with a corresponding output gear in the image forming device when the toner container is installed in the image forming device; a toner agitator movably positioned in the reservoir , the toner agitator is operatively connected to the input gear such that rotation of the input gear in a first rotational direction causes movement of the toner agitator for agitating toner in the reservoir ; and an encoded member encoded with authentication information of the toner container and operatively connected to the input gear such that rotation of the input gear in a second rotational direction causes movement of the encoded member for communicating the authentication information of the toner container to a controller of the image forming device when the toner container is installed in the image forming device. a housing having a reservoir for storing toner; an input gear positioned on the housing 102) for mating with a corresponding output gear in the image forming device when the toner container is installed in the image forming device; a toner agitator movably positioned in the reservoir , the toner agitator is operatively connected to the input gear such that rotation of the input gear in a first rotational direction causes movement of the toner agitator for agitating toner in the reservoir ; and an encoded member encoded with authentication information of the toner container and operatively connected to the input gear such that rotation of the input gear in a second rotational direction causes movement of the encoded member for communicating the authentication information of the toner container to a controller of the image forming device when the toner container is installed in the image forming device.
A pressure sensing element comprising: a support substrate ; a sensor electrode supported by the support substrate , the sensor electrode having a side wall; a pressure sensing film functionalized to be electro-conductive, at least in a portion thereof faced to the sensor electrode ; and an insulating layer which keeps the sensor electrode and the pressure sensing film apart from each other by a predetermined distance, and has formed therein an opening which extends through the insulating layer and in which the sensor electrode is exposed to the pressure sensing film , characterized in that a surface of the insulating layer opposite to the support substrate has a slope which continuously inclines up towards said opening , the insulating layer has an aperture wall which faces the side wall of the sensor electrode , and an aperture end which is the highest portion of the surface of the insulating layer around the opening , when measured from the support substrate and the pressure sensing film is stacked on the slope of the insulating layer and inclined conforming to the slope . a support substrate ; a sensor electrode supported by the support substrate , the sensor electrode having a side wall; a pressure sensing film functionalized to be electro-conductive, at least in a portion thereof faced to the sensor electrode ; and an insulating layer which keeps the sensor electrode and the pressure sensing film apart from each other by a predetermined distance, and has formed therein an opening which extends through the insulating layer and in which the sensor electrode is exposed to the pressure sensing film , characterized in that a surface of the insulating layer opposite to the support substrate has a slope which continuously inclines up towards said opening , the insulating layer has an aperture wall which faces the side wall of the sensor electrode , and an aperture end which is the highest portion of the surface of the insulating layer around the opening , when measured from the support substrate and the pressure sensing film is stacked on the slope of the insulating layer and inclined conforming to the slope .
A gas diffusion electrode substrate, comprising a carbon sheet , the carbon sheet being a porous carbon sheet comprising a carbon fiber and a binding material, and a hydrophobic material is included in the binding material, wherein said hydrophobic material is a fluorine-based polymer, wherein when among layers obtained by dividing the carbon sheet in a through-plane direction thereof into three equal parts within a section extending from a surface having a 50% average fluorine intensity, which is closest to one surface of the carbon sheet, to a surface having a 50% average fluorine intensity, which is closest to the other surface of the carbon sheet, one of a layer close to one surface has the largest average fluorine intensity, is a layer X, the other one of a layer close to the other surface has a smaller average fluorine intensity than that of the layer X , is a layer Y, and a layer between the layer X and the layer Y is a layer Z, and wherein when a surface of the carbon sheet closest to the layer X is a surface X , the gas diffusion electrode substrate has a microporous layer on the surface X side of the carbon sheet , characterized in that the average fluorine intensity of the layer decreases in the order of the layer X , the layer Y and the layer Z as determined by the method defined in the description.