mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for providing a classification explanation, comprising: - receiving (REC-IMG.A) an acquired medical image (IMG.A) corresponding to an examination volume, - receiving or determining (REC-DET-CV.A) an actual classification value (CV.A), wherein the actual classification value (CV.A) classifies an anatomical structure within the acquired medical image (IMG.A), - receiving or determining (REC-DET-CV.1) a first classification value (CV.1) being different from the actual classification value (CV.A), wherein the first classification value (CV.1) is a potential classification value related to a classification of the anatomical structure within the acquired medical image (IMG.A), wherein the anatomical structure within the acquired medical image (IMG.A) is a lesion, wherein the actual classification value (CV.A) and the first classification value (CV.1) correspond to a benignancy and/or a malignancy of the lesion, - applying (APPL-GF.1) a first generative function (GF.1) to the acquired medical image (IMG.A), thereby generating a first synthetic image (IMG.S1), wherein the first generative function (GF.1) is configured to modify the anatomical structure to exhibit the first classification value (CV.1), - providing (PROV-VIS) a visualization based on the acquired medical image (IMG.A) and the first synthetic image (IMG.S1), characterized in that the first classification value (CV.1) is used as an input parameter for the first generative function (GF.1). - receiving (REC-IMG.A) an acquired medical image (IMG.A) corresponding to an examination volume, - receiving or determining (REC-DET-CV.A) an actual classification value (CV.A), wherein the actual classification value (CV.A) classifies an anatomical structure within the acquired medical image (IMG.A), - receiving or determining (REC-DET-CV.1) a first classification value (CV.1) being different from the actual classification value (CV.A), wherein the first classification value (CV.1) is a potential classification value related to a classification of the anatomical structure within the acquired medical image (IMG.A), wherein the anatomical structure within the acquired medical image (IMG.A) is a lesion, wherein the actual classification value (CV.A) and the first classification value (CV.1) correspond to a benignancy and/or a malignancy of the lesion, wherein the first classification value (CV.1) is a potential classification value related to a classification of the anatomical structure within the acquired medical image (IMG.A), wherein the anatomical structure within the acquired medical image (IMG.A) is a lesion, wherein the actual classification value (CV.A) and the first classification value (CV.1) correspond to a benignancy and/or a malignancy of the lesion, - applying (APPL-GF.1) a first generative function (GF.1) to the acquired medical image (IMG.A), thereby generating a first synthetic image (IMG.S1), wherein the first generative function (GF.1) is configured to modify the anatomical structure to exhibit the first classification value (CV.1), - providing (PROV-VIS) a visualization based on the acquired medical image (IMG.A) and the first synthetic image (IMG.S1),
A method of acknowledging a multicast message, comprising: transmitting the multicast message and transmitting, by each node (101 - 109) in the multicast group, an acknowledgment in an assigned time slot, characterized in that the method comprises informing each node in a network about each multicast group to which it belongs, a respectively assigned multicast group address of each multicast group to which it belongs, a relative position in each multicast group to which it belongs, and a group size of each multicast group to which it belongs; the multicast message is transmitted (S 302) to the multicast group address of one of the multicast groups, wherein the message is transmitted subsequently to the informing each node in the network; and each node (101 - 109) in the multicast group determines the assigned time slot by the information the node (101 - 109) received regarding its relative position in the multicast group. transmitting the multicast message and transmitting, by each node (101 - 109) in the multicast group, an acknowledgment in an assigned time slot, characterized in that the method comprises informing each node in a network about each multicast group to which it belongs, a respectively assigned multicast group address of each multicast group to which it belongs, a relative position in each multicast group to which it belongs, and a group size of each multicast group to which it belongs; the multicast message is transmitted (S 302) to the multicast group address of one of the multicast groups, wherein the message is transmitted subsequently to the informing each node in the network; and each node (101 - 109) in the multicast group determines the assigned time slot by the information the node (101 - 109) received regarding its relative position in the multicast group.
A geometrically complex intravaginal ring, the IVR comprising: a three dimensional ring structure comprising a body forming an inner diameter and an outer diameter; a plurality of geometrically shaped unit cells, the unit cells comprising a macroscopic and/or microscopic architecture, forming geometric shapes wherein the plurality of geometrically shaped unit cells together form the body of the ring structure, wherein the IVR comprises one or more types of geometrically shaped unit cells, wherein each type of geometrically shaped unit cell varies in size, shape, configuration, surface area and/or three dimensional geometry; and an active compound; wherein the macroscopic architecture and/or microscopic architecture of the geometrically shaped unit cells is configured to control a loading capacity of the active compound within or on the IVR, a diffusion rate of the active compound from the IVR, a surface area of the IVR, a fractional volume of the IVR, and/or a mechanical property of the IVR, wherein a shape, size, and/or surface area of the IVR is fabricated by 3D printing; and wherein the active compound is incorporated into the IVR during or after 3D printing. a three dimensional ring structure comprising a body forming an inner diameter and an outer diameter; a plurality of geometrically shaped unit cells, the unit cells comprising a macroscopic and/or microscopic architecture, forming geometric shapes wherein the plurality of geometrically shaped unit cells together form the body of the ring structure, wherein the IVR comprises one or more types of geometrically shaped unit cells, wherein each type of geometrically shaped unit cell varies in size, shape, configuration, surface area and/or three dimensional geometry; and an active compound; wherein the macroscopic architecture and/or microscopic architecture of the geometrically shaped unit cells is configured to control a loading capacity of the active compound within or on the IVR, a diffusion rate of the active compound from the IVR, a surface area of the IVR, a fractional volume of the IVR, and/or a mechanical property of the IVR, wherein a shape, size, and/or surface area of the IVR is fabricated by 3D printing; and wherein the active compound is incorporated into the IVR during or after 3D printing.
A cyclic process for separating CO 2 from a gas stream, which process comprises: subjecting the gas stream to dehumidification, contacting the dehumidified gas stream with an absorbent at a temperature above 50°C to sorb CO 2, said absorbent comprising a nucleophilic amine CO 2 sorbent having a first p K a, as measured at 25°C in aqueous solution, and a non-nucleophilic base having a second p K a, as measured at 25°C in aqueous solution, at least 3 units higher than the first p K a, and said amine sorbent and non-nucleophilic base being present in a non-aqueous, aprotic solvent, wherein the contacting of the absorbent with the dehumidified gas stream results in formation of a stabilized mixed carbamate in which the CO 2 forms a carbamate by reaction with the amine sorbent and in which a protonated form of the non-nucleophilic base forms a stabilizing counterion for the carbamate; and treating the absorbent containing the sorbed CO 2 under conditions sufficient to cause desorption of at least a portion of the CO 2. subjecting the gas stream to dehumidification, contacting the dehumidified gas stream with an absorbent at a temperature above 50°C to sorb CO 2, said absorbent comprising a nucleophilic amine CO 2 sorbent having a first p K a, as measured at 25°C in aqueous solution, and a non-nucleophilic base having a second p K a, as measured at 25°C in aqueous solution, at least 3 units higher than the first p K a, and said amine sorbent and non-nucleophilic base being present in a non-aqueous, aprotic solvent, wherein the contacting of the absorbent with the dehumidified gas stream results in formation of a stabilized mixed carbamate in which the CO 2 forms a carbamate by reaction with the amine sorbent and in which a protonated form of the non-nucleophilic base forms a stabilizing counterion for the carbamate; and treating the absorbent containing the sorbed CO 2 under conditions sufficient to cause desorption of at least a portion of the CO 2.
Circuit arrangement for controlling LEDs; wherein the circuit arrangement comprises m x n LEDs in a matrix configuration, which has m columns and n rows, with m>1 and n>1, wherein each LED (LED11, LED12, LED21, LED22) of the matrix can be controlled individually by activation of a corresponding column driver (S01, S02) in conjunction with the activation of a corresponding row driver (S10, S20), with one bias device in each case per row having - a first bias connection, which is coupled to the cathodes of m of the LEDs (LED11, LED12) of this row, - a second bias connection, which is coupled to the anodes of the m LEDs (LED11, LED12) of this row, characterised in that the circuit arrangement further comprises - a voltage divider, which comprises a first, second and third resistor (R10x, R10y, R10z); wherein a connecting point between the first and the second resistor (R10x, R10y) forms the first bias connection, and wherein a connecting point between the second and the third resistor (R10y, R10z) forms the second bias connection; wherein each LED (LED11, LED12, LED21, LED22) of the matrix is coupled in each case via one of m x n non-illuminable semiconductor diodes (D11, D12, D21, D22) to a respective connection of the associated column driver (S01, S02), wherein n non-illuminable semiconductor diodes (D11, D21) of the m x n non-illuminable semiconductor diodes (D11, D12, D21, D22), which are assigned to the same column, are connected electrically to one another at one of their electrodes in each case. - a first bias connection, which is coupled to the cathodes of m of the LEDs (LED11, LED12) of this row, - a second bias connection, which is coupled to the anodes of the m LEDs (LED11, LED12) of this row, characterised in that the circuit arrangement further comprises - a voltage divider, which comprises a first, second and third resistor (R10x, R10y, R10z); wherein a connecting point between the first and the second resistor (R10x, R10y) forms the first bias connection, and wherein a connecting point between the second and the third resistor (R10y, R10z) forms the second bias connection;
A power system comprising: a prime mover; a plurality of single phase permanent magnet generators mechanically coupled to the prime mover; a DC power bus including a plurality of series arranged DC power storage components, each of the DC energy storage components being electrically connected to at least one of the single phase permanent magnet generators; a plurality of state of charge calculators, each of the state of charge calculators being connected to one of the DC energy storage component and being communicatively coupled to a generator control unit; and wherein said generator control unit is configured to independently control each of said single phase permanent magnet generators, and wherein each single phase permanent magnet generator in said a plurality of single phase permanent magnet generators includes a single phase rectifier, and an output of each single phase rectifier is interconnected with the DC power bus. a prime mover; a plurality of single phase permanent magnet generators mechanically coupled to the prime mover; a DC power bus including a plurality of series arranged DC power storage components, each of the DC energy storage components being electrically connected to at least one of the single phase permanent magnet generators; a plurality of state of charge calculators, each of the state of charge calculators being connected to one of the DC energy storage component and being communicatively coupled to a generator control unit; and wherein said generator control unit is configured to independently control each of said single phase permanent magnet generators, and wherein each single phase permanent magnet generator in said a plurality of single phase permanent magnet generators includes a single phase rectifier, and an output of each single phase rectifier is interconnected with the DC power bus.
A hydrophilic hotmelt adhesive comprising a metallocene-catalyzed polyolefin and a hydrophilic melt additive, wherein the hotmelt adhesive comprises by weight of the hotmelt adhesive: a) from 30% to 99% of the metallocene-catalyzed polyolefin; b) from 0.1% to 10% of the hydrophilic melt additive; and c) no, or below 10%, of a tackifier. a) from 30% to 99% of the metallocene-catalyzed polyolefin; b) from 0.1% to 10% of the hydrophilic melt additive; and c) no, or below 10%, of a tackifier.
Transmission for a hybrid drive arrangement, which transmission can be coupled to two drive units (7, 8), having an input shaft and an output shaft, at least a first, a second and a third shifting element (SE1, SE2, SE3), and at least one double planetary transmission, having a first sun gear and a first internal gear and a second sun gear and a second internal gear and a planetary carrier, it being possible for the input shaft to be coupled by means of the second shifting element to the first sun gear of the double planetary transmission, and it being possible for said input shaft to be coupled by means of the third shifting element to the first internal gear of the double planetary transmission, and the output shaft being coupled to the planetary carrier of the double planetary transmission, characterized in that it is possible for the input shaft to be coupled by means of the first shifting element to the planetary carrier of the double planetary transmission. having an input shaft and an output shaft, at least a first, a second and a third shifting element (SE1, SE2, SE3), and at least one double planetary transmission, having a first sun gear and a first internal gear and a second sun gear and a second internal gear and a planetary carrier, it being possible for the input shaft to be coupled by means of the second shifting element to the first sun gear of the double planetary transmission, and it being possible for said input shaft to be coupled by means of the third shifting element to the first internal gear of the double planetary transmission, and the output shaft being coupled to the planetary carrier of the double planetary transmission, characterized in that it is possible for the input shaft to be coupled by means of the first shifting element to the planetary carrier of the double planetary transmission.
A display control method performed using a system including an information processing server, the display control method comprising: (a) obtaining, by the information processing server, using a sensor, a user state indicating whether a user is currently cooking using a cooker, when an image of a delivery person delivering an item to a building in which the user is present is captured by a camera provided at an entrance door of the building; (b) obtaining, by the information processing server, content information of the item; (c) obtaining, by the information processing server, at least one suggestion associated with the user state and the content information of the item; and (d) causing, by the information processing server, a display terminal provided in the building to display the image of the delivery person, the content information of the item, and the at least one suggestion. (a) obtaining, by the information processing server, using a sensor, a user state indicating whether a user is currently cooking using a cooker, when an image of a delivery person delivering an item to a building in which the user is present is captured by a camera provided at an entrance door of the building; (b) obtaining, by the information processing server, content information of the item; (c) obtaining, by the information processing server, at least one suggestion associated with the user state and the content information of the item; and (d) causing, by the information processing server, a display terminal provided in the building to display the image of the delivery person, the content information of the item, and the at least one suggestion.
Cooking system, in particular induction cooking system, with at least one placement plate and with at least one extraction fan unit which has at least one fan wheel and at least one drive unit for driving the fan wheel and which, by means of the fan wheel, at least partially extracts steam occurring in at least one operating state from at least one cooking region by way of at least one extraction recess of the placement plate, wherein the drive unit is arranged outside a space which is at least partially enclosed by the fan wheel, wherein the fan wheel has at least one base element, from which at least a plurality of fan blade elements of the fan wheel projects, which at least partially delimit the space, wherein the drive unit has at least one rotor and at least one stator, which each have a ring-like shape and together are provided to drive the fan wheel, wherein the rotor and the base element are connected to one another in a fixed manner and wherein the drive unit has at least one bearing unit, characterised in that, when viewed vertically on a main extension plane of the placement plate, the stator is arranged concentrically around the rotor and wherein, when viewed vertically on a main extension plane of the placement plate, the rotor and the stator are arranged concentrically around the bearing unit.
Control device for controlling the process of emptying a number of poultry coops and of supplying the poultry animals coming from the poultry coops to a collection location, wherein - the poultry coops are placed in at least one row; - the bottom of each of the poultry coops comprises a removable grating; and - placed under the at least one row of poultry coops is a conveyor belt which is movable in the longitudinal direction of the row of poultry coops, leads to the collection location and is suitable for transport of poultry animals, characterized in that the control device comprises: - a number of signal generators which are each placed at a poultry coop and are each configured to generate when activated a signal for removing the grating from the poultry coop at which the signal generator is placed; and - a control element for successively controlling the signal generators associated with a row of poultry coops to be emptied. - the poultry coops are placed in at least one row; - the bottom of each of the poultry coops comprises a removable grating; and - placed under the at least one row of poultry coops is a conveyor belt which is movable in the longitudinal direction of the row of poultry coops, leads to the collection location and is suitable for transport of poultry animals, - a number of signal generators which are each placed at a poultry coop and are each configured to generate when activated a signal for removing the grating from the poultry coop at which the signal generator is placed; and - a control element for successively controlling the signal generators associated with a row of poultry coops to be emptied.
A process for manufacturing a vinylidene fluoride polymer, said process comprising polymerizing vinylidene fluoride in aqueous suspension in the presence of at least: a) an alkylene oxide polymer; and b) a polysaccharide derivative, wherein the PAO has formula R A O-[(CH 2) m O] n -R B wherein R A and R B are, independently from each other, H or a C 1 -C 5 linear or branched alkyl, preferably H or CH 3, m, equal to or different from each other at each occurrence, is an integer from 2 to 5, and n is an integer from 1000 to 200000, preferably from 2000 to 100000, more preferably from 5000 to 70000. a) an alkylene oxide polymer; and b) a polysaccharide derivative,
Method for piecing the open-end rotor spinning devices of the workstations of an open-end rotor spinning machine, each of the workstations of the open-end rotor spinning machine comprising a drivable spinning rotor rotating at high speed in a rotor housing which can be subjected to a vacuum, a drivable sliver opening roller, and a sliver pull-in cylinder which can be driven by an individual motor, the open-end rotor spinning machine being stopped, in the event of a power failure, in such a way that a yarn end required for piecing up again remains in the area of a thread draw-off tube of the open-end rotor spinning device of the workstation, the open-end rotor spinning devices of all workstations of the open-end rotor spinning machine being pieced up again simultaneously after the power failure, characterised in that when the power failure occurs, the intake speed of the sliver pull-in cylinder is first continuously reduced, and then the intake speed of the sliver pull-in cylinder is briefly increased again to generate an additional fibre feed into the spinning rotor, and the sliver pull-in cylinder is then stopped so abruptly that there is a targeted tearing of the fibres after the position of the additional fibre feed, the torn fibres being disposed of pneumatically.
An injection molding apparatus for injection molding a cover of a display apparatus, comprising: a first mold configured to form the cover provided to form a front edge of the display apparatus, and a second mold provided to couple with the first mold, and the first mold includes a curved surface core having a curved surface portion which protrudes to have the cover form a curved surface having a concave shape recessed in a forward direction, and an insert block which is provided at the curved surface core, wherein the first mold includes a cooling flow path through which cooling water may be passed to cool the cover and the insert block is provided to form a portion of the cooling flow path formed in a shape corresponding to the curved surface portion.