mhurhangee/ep-ind-claims huggingface dataset:
A method for multi-virtualization scheme selection, comprising: receiving, by a software defined network, SDN, controller (218, 340, 304), device information from a pair of nodes from a number of nodes of a network, wherein the device information includes a number of virtualization schemes; the method characterized in that it further comprises determining, by the SDN controller (218, 340, 304), a number of operable virtualization schemes from the number of virtualization schemes for a pair of nodes from the pair of nodes, wherein determining the number of operable virtualization schemes includes determining a plurality of virtualization schemes that can be supported for communication by the pair of nodes; analyzing, by the SDN controller (218, 340, 304), a number of properties of a communication between the pair of nodes, whereby the number of properties of the communication is at least one of a list comprising a type of flow, speed of flow, a determined number of middleboxes, a determined number of firewalls, a determined number of packet prevention systems, a size of communication packets, data packets, location of the number of nodes compared to a physical router; and selecting, by the SDN controller (218, 340, 304), an operable virtualization scheme for communication between the pair of nodes from the determined number of operable virtualization schemes based on the number of properties of the communication between the pair of nodes; whereby a first tenant hosted by a particular node from the number of nodes has different operable virtualization schemes compared to a second tenant hosted by the particular node. receiving, by a software defined network, SDN, controller (218, 340, 304), device information from a pair of nodes from a number of nodes of a network, wherein the device information includes a number of virtualization schemes; the method characterized in that it further comprises determining, by the SDN controller (218, 340, 304), a number of operable virtualization schemes from the number of virtualization schemes for a pair of nodes from the pair of nodes, wherein determining the number of operable virtualization schemes includes determining a plurality of virtualization schemes that can be supported for communication by the pair of nodes; analyzing, by the SDN controller (218, 340, 304), a number of properties of a communication between the pair of nodes, whereby the number of properties of the communication is at least one of a list comprising a type of flow, speed of flow, a determined number of middleboxes, a determined number of firewalls, a determined number of packet prevention systems, a size of communication packets, data packets, location of the number of nodes compared to a physical router; and selecting, by the SDN controller (218, 340, 304), an operable virtualization scheme for communication between the pair of nodes from the determined number of operable virtualization schemes based on the number of properties of the communication between the pair of nodes;
An ostomy pouch comprising: a collection pouch having a first side wall and a second side wall joined along a periphery to define an internal collection cavity, the collection pouch including an outlet opening; a retractable outlet formed separately from the collection pouch and attached to the collection pouch at the outlet opening, the retractable outlet being movable between a first position and a second position, wherein the retractable outlet is retracted to at least in part within the collection cavity in the first position and extending outwardly from the collection cavity in the second position; a discharge opening formed at a distal end of the retractable outlet; and a closure configured to selectively allow or prevent discharge of a waste material from the collection cavity or the retractable outlet. a collection pouch having a first side wall and a second side wall joined along a periphery to define an internal collection cavity, the collection pouch including an outlet opening; a retractable outlet formed separately from the collection pouch and attached to the collection pouch at the outlet opening, the retractable outlet being movable between a first position and a second position, wherein the retractable outlet is retracted to at least in part within the collection cavity in the first position and extending outwardly from the collection cavity in the second position; a discharge opening formed at a distal end of the retractable outlet; and a closure configured to selectively allow or prevent discharge of a waste material from the collection cavity or the retractable outlet.
A porous matrix based on a biologically tolerated polymer or polymer mixture, characterized in that the matrix possesses pores having a size of 130 μ m or less and pores having a size of 370 μ m or more and the degree of porosity is from 93 to 98%, wherein the matrix is obtainable by compacting a mixture of polymer particles having a particle size in the range from 20 to 950 μ m and sodium chloride particles having a particle size in the range from 90 to 670 μ m and then dissolving out the sodium chloride, wherein the matrix has the following pore size distribution: 0.5% to 6% pores having a mean diameter in the range of from 70 to 1.00 μ m; 2% to 8% pores having a mean diameter in the range of from 101 to 115 μ m; 2% to 8% pores having a mean diameter in the range of from 116 to 130 μ m; 1% to 7% pores having a mean diameter in the range of from 131 to 300 μ m; 11% to 23% pores having a mean diameter in the range of from 301 to 330 μ m; 4% to 10% pores having a mean diameter in the range of from 331 to 360 μ m; 5% to 17% pores having a mean diameter in the range of from 361 to 390 μ m; 7% to 19% pores having a mean diameter in the range of from 391 to 420 μ m; 3% to 9% pores having a mean diameter in the range of from 421 to 450 μ m; 12% to 24% pores having a mean diameter in the range of from 451 to 480 μ m; and 5% to 17% pores having a mean diameter in the range of from 481 to 510 μ m, wherein the pore size and the pore size distribution are determined by scanning electron microscopy. 0.5% to 6% pores having a mean diameter in the range of from 70 to 1.00 μ m; 2% to 8% pores having a mean diameter in the range of from 101 to 115 μ m; 2% to 8% pores having a mean diameter in the range of from 116 to 130 μ m; 1% to 7% pores having a mean diameter in the range of from 131 to 300 μ m; 11% to 23% pores having a mean diameter in the range of from 301 to 330 μ m; 4% to 10% pores having a mean diameter in the range of from 331 to 360 μ m; 5% to 17% pores having a mean diameter in the range of from 361 to 390 μ m; 7% to 19% pores having a mean diameter in the range of from 391 to 420 μ m; 3% to 9% pores having a mean diameter in the range of from 421 to 450 μ m; 12% to 24% pores having a mean diameter in the range of from 451 to 480 μ m; and 5% to 17% pores having a mean diameter in the range of from 481 to 510 μ m, wherein the pore size and the pore size distribution are determined by scanning electron microscopy.
A method performed by a device to execute an application, the method comprising: executing the application together with a first external device that is connected to the device by distributing at least one function of the application to the first external device; communication-connecting a second external device (S220, S235) during the execution of the application; executing the application together with the first external device and the second external device by distributing at least one function of the application to each of the first external device and the second external device, based on characteristic information of the first external device and the second external device; characterized by searching for a new application that is capable of being executed together by the device, the first external device, and the second external device, when the second external device is communication-connected. executing the application together with a first external device that is connected to the device by distributing at least one function of the application to the first external device; communication-connecting a second external device (S220, S235) during the execution of the application; executing the application together with the first external device and the second external device by distributing at least one function of the application to each of the first external device and the second external device, based on characteristic information of the first external device and the second external device; characterized by searching for a new application that is capable of being executed together by the device, the first external device, and the second external device, when the second external device is communication-connected.
A method for identifying biological particles from a stack of holographic images obtained by means of an optical system, characterised in that it comprises the following steps: - a first holographic image is acquired by the optical system, and the other holographic images of the stack of holographic images are calculated from the first holographic image and by means of a digital propagation model, so that said holographic images (210, 610) of the stack of holographic images are obtained for a plurality of defocusing deviations relative to a focus plane on the biological particles, the defocusing deviations being taken along the optical axis of the optical system; - a reference holographic image is selected (220, 620) in the stack of holographic images as that being closest to the focus plane on the biological particles; - for a biological particle of interest, a stack of image blocks comprising said biological particles of interest is extracted (240, 640) from the stack of holographic images; - in the stack of image blocks, a reference block is chosen as the image block centred on the particle of interest belonging to the reference image, the position of the reference block on the optical axis being then chosen as the origin for the defocusing deviations associated with the other image blocks of the stack of image blocks; - the type of the particle of interest is identified (270, 680) from the stack of image blocks. - a first holographic image is acquired by the optical system, and the other holographic images of the stack of holographic images are calculated from the first holographic image and by means of a digital propagation model, so that said holographic images (210, 610) of the stack of holographic images are obtained for a plurality of defocusing deviations relative to a focus plane on the biological particles, the defocusing deviations being taken along the optical axis of the optical system; - a reference holographic image is selected (220, 620) in the stack of holographic images as that being closest to the focus plane on the biological particles; - for a biological particle of interest, a stack of image blocks comprising said biological particles of interest is extracted (240, 640) from the stack of holographic images; - in the stack of image blocks, a reference block is chosen as the image block centred on the particle of interest belonging to the reference image, the position of the reference block on the optical axis being then chosen as the origin for the defocusing deviations associated with the other image blocks of the stack of image blocks; - the type of the particle of interest is identified (270, 680) from the stack of image blocks.
A surge protective device comprising a mechanism for signalling that comprises a surge protective module, the module comprising a support of a rotational disc, a rotational disc, a cover of the support of the rotational disc, a first plate for visual indication moveable between initial and end position, a helical spring, a disconnecting tongue which can be mechanically disconnected or retracted, the rotational disc covers a disconnection area, which is the place in the disc initial position where the disconnecting tongue interferes with the module through a trapezoidal opening of the disc; characterized in that it further comprises a second plate for locking the indication, and a button; that the rotational disc and the second plate have an initial position and an end position, wherein the initial position of the second plate is right and the end position is left; that in the disc initial position, the rotational disc is arranged to hold with its first cylindrical lug the first plate slidably arranged on the button, which is positioned on the right side of the hole of the first plate, and a first tooth is arranged to hold a second tooth of the second plate in the initial position; that the disconnecting tongue has a shape and position arranged to prevent rotation of the rotational disc driven by the helical spring; that the disconnecting tongue can be mechanically disconnected or retracted, wherein the helical spring is adapted to move the rotational disc from its initial position to its end position, and the first cylindrical lug of the rotational disc does not hold the first plate anymore, the first plate is therefore adapted to be moved to the right side, and the first tooth is adapted to disengage from the second tooth of the second plate and the latter is adapted to move to the left into its end position; that the solution of electronic signalisation is enabled by a transfer of mechanical movement from the rotational circuit breaker assembly in the module to the assembly of a micro switch, an indication pin, a printed circuit and two pressure springs (4 and 5) in a base part of the surge protective device; that in the initial position, when the active module is adapted to be inserted into the base part, so that the indication pin is pressed with a side wall of the plate and consequently the micro switch is active; that, when in this position, the module of the surge protective device is operative; that in case of disconnection the module and consequently the rotational disc are adapted to be moved, the indication lock or the second plate is movable to the extreme left position, thus allowing the indication pin, which is driven from below by two pressure springs (4 and 5), a free path upwards; that the pin of an actuator is adapted to be positioned in a round hole of the second plate, and consequently the actuator is adapted to release a switch of the micro switch, thereby allowing deactivation of the micro switch and consequently a change in the signal on the state of the surge protective module.
A method for scanning a graphic medium scan target, the method comprising the steps of: computing an exposure duration and an illumination duration according to an automatic exposure control process; capturing an image of the scan target over the exposure duration; energizing illumination of the scan target for the illumination duration; and deactivating illumination of the scan target at a point in time during the exposure duration, wherein the exposure duration comprises a length of time that is significantly greater than a length of time corresponding to the illumination duration; wherein the capturing, energizing, and deactivating are performed iteratively with increasing exposure duration values and a first set time duration of illumination duration, and upon reaching a maximum exposure duration value the illumination duration is increased relative to the first set time duration. computing an exposure duration and an illumination duration according to an automatic exposure control process; capturing an image of the scan target over the exposure duration; energizing illumination of the scan target for the illumination duration; and deactivating illumination of the scan target at a point in time during the exposure duration, wherein the exposure duration comprises a length of time that is significantly greater than a length of time corresponding to the illumination duration; wherein the capturing, energizing, and deactivating are performed iteratively with increasing exposure duration values and a first set time duration of illumination duration, and upon reaching a maximum exposure duration value the illumination duration is increased relative to the first set time duration.
Mixing element which has at least one transverse strut (1.9) from which there originate, at right angles to the longest extent of the transverse strut, at least three webs, at least one web of these at least three webs lying in alternation relative to at least two webs with respect to the longest extent of the transverse strut, and the webs lying on opposite sides of the transverse strut enclosing an opening angle O of 60° to 120°, characterized in that the thickness of the transverse strut (dQ) at its thickest point is not more than 0.9 to 1.1 times the thickness of the webs (dS) multiplied by the cosine of half the opening angle O divided by the sine of the full opening angle O, the thickness of the transverse strut (dQ) extending parallel to the main flow direction.
A polyethylene resin composition for a bottle cap, comprising 0.01 to 0.4 parts by weight of a slip agent relative to 100 parts by weight of a polyethylene resin, wherein the slip agent is an unsaturated fatty acid amide with an acid value of 0.01 to 0.1 mgKOH / g, an iodine value of 74 to 80 gl 2 / 100 g, and an amide purity of 99 to 100%.
An image encoding device for encoding image data including a base layer and at least one enhancement layer comprising: a generation section configured to generate control information designating, for a tile of an enhancement layer, a permitted reference area in the base layer, wherein each of the base layer, the at least one enhancement layer, and the permitted reference area comprise one or more tiles, wherein for each of the base layer and the at least one enhancement layer a picture of the image data is divided into the tiles which are independently decodable; an encoding section configured to encode the tile of the enhancement layer with reference to encoding-related information of the permitted reference area in the base layer according to the control information generated by the generation section; and a transmission section configured to transmit encoded data of the image data generated by the encoding section and the control information generated by the generation section. a generation section configured to generate control information designating, for a tile of an enhancement layer, a permitted reference area in the base layer, wherein each of the base layer, the at least one enhancement layer, and the permitted reference area comprise one or more tiles, wherein for each of the base layer and the at least one enhancement layer a picture of the image data is divided into the tiles which are independently decodable; an encoding section configured to encode the tile of the enhancement layer with reference to encoding-related information of the permitted reference area in the base layer according to the control information generated by the generation section; and a transmission section configured to transmit encoded data of the image data generated by the encoding section and the control information generated by the generation section.
A method, comprising: identifying, in a three-dimensional, 3D, anatomical image of a patient organ, multiple anatomical points corresponding to respective predefined locations on a surface of the patient organ in a first coordinate system; performing initial registration of the first coordinate system and a second coordinate system associated with a position tracking system by correlating between positions in the first coordinate system and respective anatomical points in the second coordinate system; navigating a medical device comprising a viewing device and a position sensor of the position tracking system to one of the predefined locations; viewing the predefined location in the first coordinate system using the viewing device; when the position of the viewed location does not match the predefined position of the viewed location, marking the position and weighting the position; and refining the initial registration of the first and second coordinate systems, by re-correlating between the positions, the marked and weighted positions and the respective anatomical points. identifying, in a three-dimensional, 3D, anatomical image of a patient organ, multiple anatomical points corresponding to respective predefined locations on a surface of the patient organ in a first coordinate system; performing initial registration of the first coordinate system and a second coordinate system associated with a position tracking system by correlating between positions in the first coordinate system and respective anatomical points in the second coordinate system; navigating a medical device comprising a viewing device and a position sensor of the position tracking system to one of the predefined locations; viewing the predefined location in the first coordinate system using the viewing device; when the position of the viewed location does not match the predefined position of the viewed location, marking the position and weighting the position; and refining the initial registration of the first and second coordinate systems, by re-correlating between the positions, the marked and weighted positions and the respective anatomical points.
Roller coaster with at least one vehicle which comprises at least two passenger reception means (20, 40) in at least two seat rows (11, 12), of which at least one of the passenger reception means is implemented with a planar foot support for a passenger received by the first passenger reception means, as well as with a rail circuit along which the vehicle is moveable in a travel direction, wherein each of the passenger reception means (20; 40) has a seating direction, wherein at least one second passenger reception means has exclusively a bar-shaped foot support for the passenger received by the second passenger reception means, wherein the vehicle comprises at least one seat row with two central first passenger reception means under which the planar foot support is arranged as a shared planar foot support, wherein, both to the right and left of these two first passenger reception means, at least second passenger reception means are arranged, wherein the seats of these second passenger reception means are arranged offset in height with respect to the first passenger reception means wherein the second passenger reception means with the bar-shaped foot supports are positioned higher, as compared to the level of the circuit rail, than the first passenger reception means, wherein the bar-shaped foot supports of the second passenger reception means are also arranged offset in height with respect to the planar foot support of the first passenger reception means, wherein the orthogonally measured distance to the rail guide of the of the segment of the bar-shaped foot support on which the foot is to rest to the front edge of the seat of the second passenger reception means is at least nearly identical or identical to the distance between the seats or the front edges of the seats and the planar foot support of the first passenger reception means, wherein the second passenger reception means is arranged, as seen in the travel direction of the vehicle, either behind or ahead of the first passenger reception means, and wherein the bar-shaped foot support does not extend beyond the front edge of the seat of the second passenger reception means.