mhurhangee/ep-ind-claims huggingface dataset:
A method for managing information pertaining to a node of a tree in a graphical user interface of an integrated software development environment, IDE, comprising: indicating a node for which information is desired, wherein the node is a node of a software data structure displayed by a model editor of the IDE in a design view, and information of the node comprises at least one object property of an object represented by the node; and upon said indication, displaying information regarding the node in an object property panel in direct visual proximity to the node, wherein the node visually appears in the tree with the displayed information in direct visual proximity to the node, and wherein the displayed information does not visually obscure any part of the tree, editing the information of the node via changing the displayed information, wherein the act of displaying information comprises: inserting information regarding the node visually below the node while the node visually appears in the tree; and expanding the tree below the node to make a space for the displayed information such that the displayed information does not visually obscure any part of the tree. indicating a node for which information is desired, wherein the node is a node of a software data structure displayed by a model editor of the IDE in a design view, and information of the node comprises at least one object property of an object represented by the node; and upon said indication, displaying information regarding the node in an object property panel in direct visual proximity to the node, wherein the node visually appears in the tree with the displayed information in direct visual proximity to the node, and wherein the displayed information does not visually obscure any part of the tree, editing the information of the node via changing the displayed information, wherein the act of displaying information comprises: inserting information regarding the node visually below the node while the node visually appears in the tree; and expanding the tree below the node to make a space for the displayed information such that the displayed information does not visually obscure any part of the tree. inserting information regarding the node visually below the node while the node visually appears in the tree; and expanding the tree below the node to make a space for the displayed information such that the displayed information does not visually obscure any part of the tree.
A nail decorating system comprising: an imaging system (213, 232) for acquiring an image of a nail to be decorated; a display configured to display the image of the nail; an applicator which applies a coating onto the nail; a processor operatively coupled to the imaging system (213, 232), the display, and the applicator; characterized in that the processor is configured to determine a nail travel path along which the nail should be moved relative to the applicator. an imaging system (213, 232) for acquiring an image of a nail to be decorated; a display configured to display the image of the nail; an applicator which applies a coating onto the nail; a processor operatively coupled to the imaging system (213, 232), the display, and the applicator; characterized in that the processor is configured to determine a nail travel path along which the nail should be moved relative to the applicator.
A retail checkout system for allowing a plurality of customers to checkout one or more product items of at least one set of product items of a given type that has an estimated mean weight and a deviation from the estimated mean weight associated with the set of product items, the system comprising: a retail checkout weight scale; characterized in that the system further comprises a checkout engine (124; 150) that is operative to: determine a mean anticipated cumulative weight and a distribution from the mean anticipated cumulative weight for at least one product item for which a customer initiated the acquisition of respective weight-information; determine a factual cumulative weight of a customer's shopping receptacle placed on the retail checkout weight scale; and determine whether the factual cumulative weight meets a checkout criterion with respect to the distribution from the mean anticipated cumulative weight. a retail checkout weight scale; characterized in that the system further comprises a checkout engine (124; 150) that is operative to: determine a mean anticipated cumulative weight and a distribution from the mean anticipated cumulative weight for at least one product item for which a customer initiated the acquisition of respective weight-information; determine a factual cumulative weight of a customer's shopping receptacle placed on the retail checkout weight scale; and determine whether the factual cumulative weight meets a checkout criterion with respect to the distribution from the mean anticipated cumulative weight. determine a mean anticipated cumulative weight and a distribution from the mean anticipated cumulative weight for at least one product item for which a customer initiated the acquisition of respective weight-information; determine a factual cumulative weight of a customer's shopping receptacle placed on the retail checkout weight scale; and determine whether the factual cumulative weight meets a checkout criterion with respect to the distribution from the mean anticipated cumulative weight.
A method for registering a sensor assembly (52, 102), implemented on a base apparatus, to a desired location within a head of a user, comprising: determining a position of a reference point on the base apparatus relative to an external anatomical landmark of the user; determining a position and orientation of the sensor assembly with respect to the reference point on the base apparatus; determining a position of the external anatomical landmark relative to the desired location; and determining the position and orientation of the sensor assembly relative to the desired location according to the determined position and orientation of the sensor assembly relative to the reference point, the determined position of the reference point relative to the external anatomical landmark, and the position of the external anatomical landmark relative to the desired location. determining a position of a reference point on the base apparatus relative to an external anatomical landmark of the user; determining a position and orientation of the sensor assembly with respect to the reference point on the base apparatus; determining a position of the external anatomical landmark relative to the desired location; and determining the position and orientation of the sensor assembly relative to the desired location according to the determined position and orientation of the sensor assembly relative to the reference point, the determined position of the reference point relative to the external anatomical landmark, and the position of the external anatomical landmark relative to the desired location.
A method of producing a bone autograft, comprising: providing one or more teeth; converting said one or more teeth, into a plurality of particles (103; 205); selecting from said plurality of particles a subset of particles to produce said autograft, said selecting comprising sifting said plurality of particles using a first sieve (603; 709; 803) sized to pass particles having a diameter which is substantially smaller than a first threshold, and a second sieve sized to pass particles having a diameter which is substantially smaller than a second threshold. providing one or more teeth; converting said one or more teeth, into a plurality of particles (103; 205); selecting from said plurality of particles a subset of particles to produce said autograft, said selecting comprising sifting said plurality of particles using a first sieve (603; 709; 803) sized to pass particles having a diameter which is substantially smaller than a first threshold, and a second sieve sized to pass particles having a diameter which is substantially smaller than a second threshold.
A monolithic three dimensional, 3D, integrated circuit, IC, in the following referred to as 3DIC, comprising: a memory structure (60,80) comprising: a plurality of tiers (62,83), each tier having a client memory unit (64,86); a plurality of monolithic intertier vias, MIVs, spanning the plurality of tiers; a first multiplexer (70,90) disposed in a first tier among the plurality of tiers and coupled to at least a respective client memory unit within the first tier of the plurality of tiers; a second multiplexer (70,90) disposed in a second tier among the plurality of tiers and coupled to at least a second respective client memory unit within the second tier of the plurality of tiers; control logic configured to determine which, if any, client memory units are active and reconfigure usage of client memory units based on such determination; wherein the plurality of MIVs are configured to act as a vertical crossbar (66,82) for the memory structure (60,80) with said first and second multiplexers (70,90) connecting said respective client memory units (64,86) to the vertical crossbar (66,82). a plurality of tiers (62,83), each tier having a client memory unit (64,86); a plurality of monolithic intertier vias, MIVs, spanning the plurality of tiers; a first multiplexer (70,90) disposed in a first tier among the plurality of tiers and coupled to at least a respective client memory unit within the first tier of the plurality of tiers; a second multiplexer (70,90) disposed in a second tier among the plurality of tiers and coupled to at least a second respective client memory unit within the second tier of the plurality of tiers; control logic configured to determine which, if any, client memory units are active and reconfigure usage of client memory units based on such determination; wherein the plurality of MIVs are configured to act as a vertical crossbar (66,82) for the memory structure (60,80) with said first and second multiplexers (70,90) connecting said respective client memory units (64,86) to the vertical crossbar (66,82).
An acoustic enhancement device intended for being placed on a support and under a covering, and comprising a first flexible layer intended for being placed facing the support, a second rigid layer joined to the first flexible layer and intended for being placed opposite the support, and damping means (12, 13), wherein the damping means are integrated in the second rigid layer or form a third damping layer placed on the second rigid layer and opposite the first flexible layer, wherein the flexible layer is a layer with open porosity, i.e. consisting of a material completely fibrous or foamy authorizing an air circulation in the layer,and wherein (ii) when the damping means form a third damping layer, the latter has, at 1000 Hz and 20°C, a loss factor tanδ at least equal to 0.3, preferably higher than 1, and a dynamic Young's modulus E' of between 5×10 6 Pa and 10 8 Pa and when the damping means are integrated in the rigid layer, said damping means are in the form of aggregates, the material of the rigid layer forming the binder, and they consist of one or more viscoelastic polymer material(s), of the type of EVA based polymers, of the acrylic type, the polyvinyl butyral type, in particular the polyvinyl butyral type having enhanced acoustic damping properties.
Round baler, having a pressing apparatus for pressing harvested agricultural crops into a bale in a pressing chamber, and a binding unit having a binding housing, a plurality of roll holders (22, 26) arranged at least partially in the binding housing, each for rotatably receiving a binding material roll (42, 43), a feed unit through which binding material (44, 45) can be fed from an active roll holder (22, 26) selectable from the plurality of roll holders (22, 26) in the direction of the pressing chamber, and a braking unit configured to cooperate at least indirectly with a binding material roll (42, 43) to brake it, characterized in that the braking unit is adjustable, relative to the binding housing, between a plurality of braking positions (D1, D2), wherein each roll holder (22, 26) is assigned at least one braking position (D1, D2), and the braking unit is configured, in a braking position (D1, D2) assigned to a roll holder (22, 26), to cooperate at least indirectly with the binding material roll (42, 43), held in this roll holder (22, 26), in order to brake it.
A computer-implemented method comprising: providing, in a geological domain coordinate system, a conformal mesh, conformal to geological discontinuities of a geological model, that comprises depositional domain coordinates associated with a depositional domain coordinate system; providing, in the depositional domain coordinate system, an initial, at least vertically structured, multidimensional grid that comprises initial nodes that define grid cells; referencing the conformal mesh to identify a set of grid cells of the initial grid traversed by the geological discontinuities; splitting each of the grid cells in the set to form sub cells, each of the sub cells defined at least in part by one or more new nodes; assigning geological domain coordinates associated with the geological domain coordinate system to at least the new nodes to generate a final grid that comprises the initial nodes, the new nodes and geological domain coordinates associated with the geological domain coordinate system; and performing at least one member selected from a group consisting of interpolating geological rock types for at least a portion of the final grid, interpolating petrophysical properties for at least a portion of the final grid, and simulating fluid flow for at least a portion of the final grid. providing, in a geological domain coordinate system, a conformal mesh, conformal to geological discontinuities of a geological model, that comprises depositional domain coordinates associated with a depositional domain coordinate system; providing, in the depositional domain coordinate system, an initial, at least vertically structured, multidimensional grid that comprises initial nodes that define grid cells; referencing the conformal mesh to identify a set of grid cells of the initial grid traversed by the geological discontinuities; splitting each of the grid cells in the set to form sub cells, each of the sub cells defined at least in part by one or more new nodes; assigning geological domain coordinates associated with the geological domain coordinate system to at least the new nodes to generate a final grid that comprises the initial nodes, the new nodes and geological domain coordinates associated with the geological domain coordinate system; and performing at least one member selected from a group consisting of interpolating geological rock types for at least a portion of the final grid, interpolating petrophysical properties for at least a portion of the final grid, and simulating fluid flow for at least a portion of the final grid.
Coextrusion installation for producing a coextruded profiled element for tyres that is made from rubber compounds of different compositions, having at least one first extruder having a screw with a longitudinal axis, and at least one second extruder having a screw with a longitudinal axis, and an extrusion head connected to each of said extruders (10, 20) by appropriate ducts (11, 21), characterized in that the feed inlet (16, 26) of each extruder (10, 20) is connected to the delivery orifice (38, 48) of a gear pump (30, 40).
Method of encoding colors of an image of a scene into encoded colors (R',G',B'), wherein said scene has at least two different illuminations including a first illumination of high luminance and a second illumination of lower luminance, said method comprising, for each of said colors: - applying to three color coordinates (X,Y,Z) representing said color in a device independent color space the inverse of a first linear model (M p) modelling a first virtual display device corresponding to the first illumination, resulting in a first set of device-dependent color coordinates (R p,G p,B p), - applying to the three color coordinates (X,Y,Z) representing said color in said device independent color space the inverse of a second linear model (M d) modelling a second virtual display device corresponding to the second illumination, resulting in a second set of device-dependent color coordinates (R d,G d,B d), - computing a third set of device-dependent color coordinates (R',G',B') by linearly combining said first set of device-dependent color coordinates (R p,G p,B p) with a first weight (w) and said second set of device-dependent color coordinates (R d,G d,B d) with a second weight, wherein said first weight (w) is proportional to the luminance of said color. - applying to three color coordinates (X,Y,Z) representing said color in a device independent color space the inverse of a first linear model (M p) modelling a first virtual display device corresponding to the first illumination, resulting in a first set of device-dependent color coordinates (R p,G p,B p), - applying to the three color coordinates (X,Y,Z) representing said color in said device independent color space the inverse of a second linear model (M d) modelling a second virtual display device corresponding to the second illumination, resulting in a second set of device-dependent color coordinates (R d,G d,B d), - computing a third set of device-dependent color coordinates (R',G',B') by linearly combining said first set of device-dependent color coordinates (R p,G p,B p) with a first weight (w) and said second set of device-dependent color coordinates (R d,G d,B d) with a second weight, wherein said first weight (w) is proportional to the luminance of said color.
An imaging method, comprising: preprocessing projection data to obtain a predicted image of a truncated portion; performing forward projection on the predicted image to obtain predicted projection data of the truncated portion; and performing image reconstruction based on the predicted projection data and projection data of an untruncated portion, wherein the preprocessing projection data to obtain a predicted image of a truncated portion comprises: processing the truncated portion of the projection data based on the untruncated portion of the projection data, so as to obtain, by reconstruction, an initial image of the truncated portion; and calibrating the initial image based on a trained learning network to obtain the predicted image of the truncated portion. preprocessing projection data to obtain a predicted image of a truncated portion; performing forward projection on the predicted image to obtain predicted projection data of the truncated portion; and performing image reconstruction based on the predicted projection data and projection data of an untruncated portion, wherein the preprocessing projection data to obtain a predicted image of a truncated portion comprises: processing the truncated portion of the projection data based on the untruncated portion of the projection data, so as to obtain, by reconstruction, an initial image of the truncated portion; and calibrating the initial image based on a trained learning network to obtain the predicted image of the truncated portion. processing the truncated portion of the projection data based on the untruncated portion of the projection data, so as to obtain, by reconstruction, an initial image of the truncated portion; and calibrating the initial image based on a trained learning network to obtain the predicted image of the truncated portion.
A composition comprising: a water swellable, water permeable interpenetrating polymer network or semi-IPN member comprising: (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between a first surface and a second surface, and the second polymer network and third polymer network are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer. a water swellable, water permeable interpenetrating polymer network or semi-IPN member comprising: (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between a first surface and a second surface, and the second polymer network and third polymer network are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer.
An apparatus comprising: a gas turbine engine having a compressor, a combustor, and a turbine; a gas turbine engine housing at least partially enclosing the compressor, the combustor, and the turbine; a heat exchanger pump disposed within the housing, the heat exchanger pump being operable to compress a heat exchange working fluid and being drivingly coupled to a gas turbine engine shaft (66;86) and compressing the working fluid; characterized in that the heat exchanger pump is located to rotate within one of the compressor or turbine rotor during operation of the gas turbine engine. a gas turbine engine having a compressor, a combustor, and a turbine; a gas turbine engine housing at least partially enclosing the compressor, the combustor, and the turbine; a heat exchanger pump disposed within the housing, the heat exchanger pump being operable to compress a heat exchange working fluid and being drivingly coupled to a gas turbine engine shaft (66;86) and compressing the working fluid; characterized in that the heat exchanger pump is located to rotate within one of the compressor or turbine rotor during operation of the gas turbine engine.
A method for preparing eye drops of cyclosporin A, the concentration of which in the eye drops is between 1 mg/ml and 40 mg/ml, in the form of an emulsion, a microemulsion or a lipophilic/hydrophilic micellar solution of which the lipophilic, and therefore oily, phase contains cyclosporin A, characterised in that the method comprises at least the steps of: a) eliminating at least 99 wt.% of the ethanol contained in the oily solution of cyclosporin A, under a flow of nitrogen under a pressure of 0.5 bar, at a temperature between 2°C and 45°C and for a period between 0.25 h and 24 h, b) diluting the concentrate obtained in step a) in an aqueous solution, c) forming an emulsion, a microemulsion or a micellar solution of which the aqueous phase makes up at least 75% of the final emulsion, microemulsion or micellar solution, by mixing, under stirring, the concentrated oily solution obtained in step a) with the diluted aqueous solution obtained in step b), d) packaging, in a sterile manner, the obtained eye drops in packaging that is suitable for ophthalmic use. a) eliminating at least 99 wt.% of the ethanol contained in the oily solution of cyclosporin A, under a flow of nitrogen under a pressure of 0.5 bar, at a temperature between 2°C and 45°C and for a period between 0.25 h and 24 h, b) diluting the concentrate obtained in step a) in an aqueous solution, c) forming an emulsion, a microemulsion or a micellar solution of which the aqueous phase makes up at least 75% of the final emulsion, microemulsion or micellar solution, by mixing, under stirring, the concentrated oily solution obtained in step a) with the diluted aqueous solution obtained in step b), d) packaging, in a sterile manner, the obtained eye drops in packaging that is suitable for ophthalmic use.