mhurhangee/ep-ind-claims huggingface dataset:
A resin composition, comprising: a polyarylate resin; a melt-polymerized polycarbonate resin; one or more compounds selected from the group consisting of phosphite compounds represented by the following general formulas and; and a dipentaerythritol fatty acid ester, a mass ratio (A/B) of the polyarylate resin and the melt-polymerized polycarbonate resin being from 2/98 to 98/2, and the resin composition having a Vicat softening point of 140°C or higher, wherein the Vicat softening point is determined with the method disclosed in the specification, (In the formula, R 11 and R 12 each independently represent an aryl group having 6 to 40 carbon atoms or an alkyl group having 1 to 40 carbon atoms); (In the formula, R 41 to R 45 are each independently a hydrogen atom or a hydrocarbon group having 1 to 10 carbon atoms). a polyarylate resin; a melt-polymerized polycarbonate resin; one or more compounds selected from the group consisting of phosphite compounds represented by the following general formulas and; and a dipentaerythritol fatty acid ester, a mass ratio (A/B) of the polyarylate resin and the melt-polymerized polycarbonate resin being from 2/98 to 98/2, and the resin composition having a Vicat softening point of 140°C or higher, wherein the Vicat softening point is determined with the method disclosed in the specification, (In the formula, R 11 and R 12 each independently represent an aryl group having 6 to 40 carbon atoms or an alkyl group having 1 to 40 carbon atoms); (In the formula, R 41 to R 45 are each independently a hydrogen atom or a hydrocarbon group having 1 to 10 carbon atoms).
A computer-implemented method for medical diagnostic imaging with reduced contrast agent dose, the method comprising: a) performing diagnostic imaging of a subject to produce a low-contrast magnetic resonance, MR, image acquired with a low contrast agent dose administered to the subject, where the low contrast agent dose is less than a full contrast agent dose, and a zero-contrast magnetic resonance, MR, image acquired with no contrast agent dose administered to the subject; b) pre-processing the low-contrast image and zero-contrast image to co-register and normalize the images to adjust for acquisition and scaling differences; c) applying the low-contrast image and the zero-contrast image as input to a deep learning network, DLN, to generate as output of the DLN a synthesized full-dose contrast agent image of the subject; wherein the DLN has been trained by applying zero-contrast images and low-contrast images as input and full-contrast images as reference ground-truth images. a) performing diagnostic imaging of a subject to produce a low-contrast magnetic resonance, MR, image acquired with a low contrast agent dose administered to the subject, where the low contrast agent dose is less than a full contrast agent dose, and a zero-contrast magnetic resonance, MR, image acquired with no contrast agent dose administered to the subject; b) pre-processing the low-contrast image and zero-contrast image to co-register and normalize the images to adjust for acquisition and scaling differences; c) applying the low-contrast image and the zero-contrast image as input to a deep learning network, DLN, to generate as output of the DLN a synthesized full-dose contrast agent image of the subject;
A chocolate composition, comprising cacao mass, cacao butter or cacao butter equivalent, saccharides containing allulose, and an emulsifier, wherein the allulose is uniformly dispersed in chocolate, wherein the chocolate composition produced by performing a conching step under a temperature condition of 45 to 60°C comprises particles having a particle diameter of 15 to 40 micrometers, and wherein the saccharides contain allulose 2 to 50 parts by weight based on 100 % by weight of the chocolate composition.
A sand casting method comprising the steps of: preparing a sand mold (10, 100) which includes a) or b): a) a recess (30, 32, 34) formed in a main mold, opening to a cavity of the main mold and a partial sand mold (40, 42, 44, 120) configured to be detachably attachable to the recess (30, 32, 34), b) a main mold, a core installed in a product portion of the main mold, and a partial sand mold configured to be detachably attachable to a recess (30, 32, 34) which is formed in the core, opening to a surface of the core; setting the partial sand mold (40, 42, 44, 120) to a temperature of 200°C or above, which is higher than a temperature of the main mold in case a), or of the core in case b); installing the partial sand mold (40, 42, 44, 120) which has a temperature of 200°C or above in the recess (30, 32, 34) of the main mold in case a), or of the core in case b); and carrying out casting by pouring molten metal into the main mold, with the main mold in case a) or the core in case b) incorporated with the partial sand mold (40, 42, 44, 120) having a temperature of 200°C or above. preparing a sand mold (10, 100) which includes a) or b): a) a recess (30, 32, 34) formed in a main mold, opening to a cavity of the main mold and a partial sand mold (40, 42, 44, 120) configured to be detachably attachable to the recess (30, 32, 34), b) a main mold, a core installed in a product portion of the main mold, and a partial sand mold configured to be detachably attachable to a recess (30, 32, 34) which is formed in the core, opening to a surface of the core; a) a recess (30, 32, 34) formed in a main mold, opening to a cavity of the main mold and a partial sand mold (40, 42, 44, 120) configured to be detachably attachable to the recess (30, 32, 34), b) a main mold, a core installed in a product portion of the main mold, and a partial sand mold configured to be detachably attachable to a recess (30, 32, 34) which is formed in the core, opening to a surface of the core; setting the partial sand mold (40, 42, 44, 120) to a temperature of 200°C or above, which is higher than a temperature of the main mold in case a), or of the core in case b); installing the partial sand mold (40, 42, 44, 120) which has a temperature of 200°C or above in the recess (30, 32, 34) of the main mold in case a), or of the core in case b); and carrying out casting by pouring molten metal into the main mold, with the main mold in case a) or the core in case b) incorporated with the partial sand mold (40, 42, 44, 120) having a temperature of 200°C or above.
A method for managing load shedding in a device capable of selectively operating on an electric grid and an energy storage power source, said method, operable in a processor within said device, comprising the steps of: charging said energy storage power source to at least a reserve level during off-peak energy period; receiving a request for load shedding; determining whether the severity of the situation that generated the shedding signal is greater than a threshold value; determining whether a user of the device is willing to cooperate with said request for load shedding; if so, determining whether capacity in the energy storage power source is above said reserve level; and switching to said energy storage power source for supplying energy to selected components of said device when capacity in said energy storage power source is above said reserve level. charging said energy storage power source to at least a reserve level during off-peak energy period; receiving a request for load shedding; determining whether the severity of the situation that generated the shedding signal is greater than a threshold value; determining whether a user of the device is willing to cooperate with said request for load shedding; if so, determining whether capacity in the energy storage power source is above said reserve level; and switching to said energy storage power source for supplying energy to selected components of said device when capacity in said energy storage power source is above said reserve level. if so, determining whether capacity in the energy storage power source is above said reserve level; and switching to said energy storage power source for supplying energy to selected components of said device when capacity in said energy storage power source is above said reserve level.
A lock for a security device comprising a male element having a shoulder and a female element for receiving the male element and having a catch enabling aligned copular engagement therebetween with the catch behind the shoulder; and a lock casing having an axis, with a mechanism operable along the lock casing axis for selectively displacing the catch to engage or release the male element, the catch and lock casing being held in the female element with the lock casing axis inclined to the line of engagement of the male and female elements, CHARACTERISED IN THAT the lock casing and the female element have juxtaposed faces (40, 82, 86) inclined to said line of engagement to form at least one dovetail joint, whereby longitudinal forces generated by attempted separation of the engaged male and female elements (2, 6) are partially resolved by said faces into lateral forces on the female element.
A rope, wherein the rope along a longitudinal rope direction of the rope towards a longitudinal rope end of the rope successively comprises at least a main rope segment, a branching position and an end connector segment, wherein: - the branching position is a fixed position along the longitudinal rope direction, - the end connector segment is formed by all parts of the rope that, as seen in said longitudinal rope direction, are extending from the branching position up to the longitudinal rope end, - the end connector segment has two, and only two, branches of the rope, - said two branches of the rope are consisting of a first rope-branch and a second rope-branch, which at said branching position are branched off from the main rope segment, and - the first rope-branch comprises a first rope-branch-eye and the second rope-branch comprises a second rope-branch-eye, characterized in that - an attainable maximum first effective length of the first rope-branch is higher than 120% of an attainable maximum second effective length of the second rope-branch. - the branching position is a fixed position along the longitudinal rope direction, - the end connector segment is formed by all parts of the rope that, as seen in said longitudinal rope direction, are extending from the branching position up to the longitudinal rope end, - the end connector segment has two, and only two, branches of the rope, - said two branches of the rope are consisting of a first rope-branch and a second rope-branch, which at said branching position are branched off from the main rope segment, and - the first rope-branch comprises a first rope-branch-eye and the second rope-branch comprises a second rope-branch-eye, characterized in that - an attainable maximum first effective length of the first rope-branch is higher than 120% of an attainable maximum second effective length of the second rope-branch.
A method for automated image inspection, comprising the steps of: a) generating a video signal; b) providing a source light which outputs emitted light; c) providing a digital light mask which attenuates the emitted light; d) directing the attenuated light towards an article; and e) inspecting the article with a vision system, characterized in that the video signal determines a digital light mask compensation. a) generating a video signal; b) providing a source light which outputs emitted light; c) providing a digital light mask which attenuates the emitted light; d) directing the attenuated light towards an article; and e) inspecting the article with a vision system,
A method, comprising: obtaining cardiac image data; reconstructing a cardiac image based on the cardiac image data, wherein the cardiac image includes a plurality of first edges; obtaining a three-dimensional cardiac chamber model, wherein the three-dimensional cardiac chamber model includes a plurality of second edges corresponding to the plurality of first edges, the plurality of second edges define a plurality of chambers and include a plurality of control points, the three-dimensional cardiac chamber model is generated based on the plurality of control points and a correlation factor of at least one control point of the plurality of control points, the correlation factor of the at least one control point represents an influence of different chambers of the plurality of chambers on the at least one control point, and causes an adjustment of the at least one control point to be affected by the different chambers, thereby correlating the different chambers and improving a chamber boundary separation of the three-dimensional cardiac chamber model; matching, based on the one or more first edges and the one or more second edges, the three-dimensional cardiac chamber model and the cardiac image; and adjusting the one or more second edges of the three-dimensional cardiac chamber model based on the one or more first edges, wherein the at least one control point of the second edges is transformed based on a grid model of the correlation factor. obtaining cardiac image data; reconstructing a cardiac image based on the cardiac image data, wherein the cardiac image includes a plurality of first edges; obtaining a three-dimensional cardiac chamber model, wherein the three-dimensional cardiac chamber model includes a plurality of second edges corresponding to the plurality of first edges, the plurality of second edges define a plurality of chambers and include a plurality of control points, the three-dimensional cardiac chamber model is generated based on the plurality of control points and a correlation factor of at least one control point of the plurality of control points, the correlation factor of the at least one control point represents an influence of different chambers of the plurality of chambers on the at least one control point, and causes an adjustment of the at least one control point to be affected by the different chambers, thereby correlating the different chambers and improving a chamber boundary separation of the three-dimensional cardiac chamber model; matching, based on the one or more first edges and the one or more second edges, the three-dimensional cardiac chamber model and the cardiac image; and adjusting the one or more second edges of the three-dimensional cardiac chamber model based on the one or more first edges, wherein the at least one control point of the second edges is transformed based on a grid model of the correlation factor.
A method for performing analytical procedures by interactions with visual representations of datasets, comprising: displaying (205, 305) a visualization of a first dataset in a first portion of a graphical user interface, GUI, the visualization of the first dataset associated with at least one set of criteria applied to the first dataset; displaying (210, 310) a visualization of a second dataset in a second portion of the GUI; receiving (215, 315) a selection of at least a portion of the data from the visualization of the first dataset, the selection representing at least one set of the set of criteria from the first dataset; receiving a request to apply the selection to the second dataset; based on the received request, applying (245, 335) the at least one set of criteria from the selected portion of the first dataset to the second dataset as a filter to generate a third dataset; and displaying (250, 340) a visual representation of the third dataset in the GUI. displaying (205, 305) a visualization of a first dataset in a first portion of a graphical user interface, GUI, the visualization of the first dataset associated with at least one set of criteria applied to the first dataset; displaying (210, 310) a visualization of a second dataset in a second portion of the GUI; receiving (215, 315) a selection of at least a portion of the data from the visualization of the first dataset, the selection representing at least one set of the set of criteria from the first dataset; receiving a request to apply the selection to the second dataset; based on the received request, applying (245, 335) the at least one set of criteria from the selected portion of the first dataset to the second dataset as a filter to generate a third dataset; and displaying (250, 340) a visual representation of the third dataset in the GUI.
A home laundry drier comprising an outer box casing and, inside the casing, a drying drum for housing the laundry to be dried, a hot-air generator for circulating a stream of hot air (f) inside said drying drum, and a steam generator for feeding steam into said drying drum; the drying drum being fixed inside the casing for rotating about its longitudinal axis, and said laundry drier being provided with driving means for rotating, on command, the drying drum about its longitudinal axis; the end wall of the drying drum being permeable to air to permit air entry into the drum, and the hot-air generator comprising an air recirculating conduit having its exhaust end coupled to the end wall of said drying drum, and ventilating means to produce, along said recirculating conduit, an airflow (f) entering in the drying drum via its end wall; the driving means comprising an electric motor mechanically coupled to the drying drum for rotating, on command, the latter about its longitudinal axis, wherein said electric motor also drives said ventilating means, and said steam generator feeds steam into the drying drum via a steam nozzle, characterized in that said steam nozzle is faced to said end wall of said drying drum in such a way that steam jets are taken into said drying drum by said stream of hot air (f) entering in said drying drum via said end wall.
A method for determining an amount of ink used by first inkjet printhead cartridge of a first inkjet printer connected to a network to which second inkjet printers (12b, 12c) are connected, comprising the step of: (a) accessing by the first inkjet printer a first printhead identification value of the first inkjet printhead cartridge; and characterized in further comprising the following steps: (b) requesting by the first inkjet printer the second inkjet printers (12b, 12c) to seek information related to the first printhead identification value; (c) receiving by the first inkjet printer one or more historical record values associated with the first printhead identification value from the one or more of the second inkjet printers (12b, 12c); (d) storing by the first inkjet printer a latest historical record value received from the one or more of the second inkjet printers (12b, 12c); and (e) incrementing a first historical record value of the first inkjet printer based on a number of ink dots ejected from the first inkjet printhead cartridge when printing is performed after the first inkjet printhead cartridge is installed in the first inkjet printer. (a) accessing by the first inkjet printer a first printhead identification value of the first inkjet printhead cartridge; (b) requesting by the first inkjet printer the second inkjet printers (12b, 12c) to seek information related to the first printhead identification value; (c) receiving by the first inkjet printer one or more historical record values associated with the first printhead identification value from the one or more of the second inkjet printers (12b, 12c); (d) storing by the first inkjet printer a latest historical record value received from the one or more of the second inkjet printers (12b, 12c); and (e) incrementing a first historical record value of the first inkjet printer based on a number of ink dots ejected from the first inkjet printhead cartridge when printing is performed after the first inkjet printhead cartridge is installed in the first inkjet printer.
Building envelope portion, such as a façade or roof portion, intended for a permanent structure and comprising: a textile covering membrane; a support frame for the membrane comprising at least one first profile for retaining at least a first end of said textile covering membrane, and a second profile for retaining at least a second end of said textile covering membrane; a single fastening element being connected to two elastic tensioning mechanisms so as to exert a force for moving the first profile in a first direction, and a force for moving the second profile in a second direction substantially orthogonal to the first direction; a plurality of fastening elements intended to fasten the support frame to said permanent structure; a plurality of elastic tensioning mechanisms, each arranged to exert a force between a said profile and a said fastening element to which it is connected so as to tension said membrane, and each mechanism comprising an elastic element configured to adjust the tension of the membrane between a minimum value ensuring the functionality and/or the sealing tightness of the membrane and a maximum value in response to the ageing of the membrane or to a climatic or thermal change, said elastic element being a spring, a Belleville washer stack or an elastomer; in which one and the same profile of said at least one first profile is tensioned by a number of said plurality of elastic tensioning mechanisms; each of said number of tensioning mechanisms being connected to a fastening element separate from the other fastening elements of said plurality of fastening elements. a textile covering membrane; a support frame for the membrane comprising at least one first profile for retaining at least a first end of said textile covering membrane, and a second profile for retaining at least a second end of said textile covering membrane; a single fastening element being connected to two elastic tensioning mechanisms so as to exert a force for moving the first profile in a first direction, and a force for moving the second profile in a second direction substantially orthogonal to the first direction; a plurality of fastening elements intended to fasten the support frame to said permanent structure; a plurality of elastic tensioning mechanisms, each arranged to exert a force between a said profile and a said fastening element to which it is connected so as to tension said membrane, and each mechanism comprising an elastic element configured to adjust the tension of the membrane between a minimum value ensuring the functionality and/or the sealing tightness of the membrane and a maximum value in response to the ageing of the membrane or to a climatic or thermal change, said elastic element being a spring, a Belleville washer stack or an elastomer; in which one and the same profile of said at least one first profile is tensioned by a number of said plurality of elastic tensioning mechanisms; each of said number of tensioning mechanisms being connected to a fastening element separate from the other fastening elements of said plurality of fastening elements.