mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an image capture device, the method comprising: displaying a real-time image on a display of the image capture device, the real-time image being based on digital image data acquired by a digital image sensor; receiving a selection of one or more regions within the real-time image; setting, in response to the selection, the one or more regions of the selection as one or more user-defined regions of interest (ROIs) within the real-time image for applying one or more first image acquisition parameters; cancelling the one or more user-defined ROIs and setting one or more default ROIs (325, 335, 340, 345, 350, 360a-h) within the real-time image for applying one or more second image acquisition parameters when a position of the image capture device has changed by an amount which exceeds a threshold amount, the one or more default ROIs (325, 335, 340, 345, 350, 360a-h) being preset prior to the selection of one or more user-defined ROIs, irrespective of the real-time image; and acquiring digital image data by the digital image sensor in accordance with one of the one or more user-defined ROIs and the one or more default ROIs (325, 335, 340, 345, 350, 360a-h). displaying a real-time image on a display of the image capture device, the real-time image being based on digital image data acquired by a digital image sensor; receiving a selection of one or more regions within the real-time image; setting, in response to the selection, the one or more regions of the selection as one or more user-defined regions of interest (ROIs) within the real-time image for applying one or more first image acquisition parameters; cancelling the one or more user-defined ROIs and setting one or more default ROIs (325, 335, 340, 345, 350, 360a-h) within the real-time image for applying one or more second image acquisition parameters when a position of the image capture device has changed by an amount which exceeds a threshold amount, the one or more default ROIs (325, 335, 340, 345, 350, 360a-h) being preset prior to the selection of one or more user-defined ROIs, irrespective of the real-time image; and acquiring digital image data by the digital image sensor in accordance with one of the one or more user-defined ROIs and the one or more default ROIs (325, 335, 340, 345, 350, 360a-h).
Guide (20, 20b) adapted to support a container such that the container is movable relative to the guide (20, 20b) along a longitudinal direction of the guide (20, 20b), comprising an elongated track extending along the longitudinal direction, a protrusion at least partly extending in a transverse direction (T 1, T 2), the protrusion being adapted to interact with an abutment portion (17a 2, 17b 2) of the container and thereby counteracting the container from being unintentionally dismounted from the guide (20, 20b) in the longitudinal direction, a local dilatation at least partly extending in a transverse direction (T 1, T 2) allowing the container to be mounted/dismounted by manoeuvring a portion of the container via the dilatation thereby allowing the abutment portion (17a 2, 17b 2) to circumnavigate the protrusion, characterised in that the guide (20, 20b) further comprises an attachable plug adapted to be attached to the track after mounting of the container on the guide (20, 20b), such that the plug occupies at least a portion of the dilatation and thereby counteracting unintentional manoeuvring of said portion of the container via the dilatation and thereby counteracting the abutment portion (17a 2, 17b 2) from circumnavigating the protrusion. an elongated track extending along the longitudinal direction, a protrusion at least partly extending in a transverse direction (T 1, T 2), the protrusion being adapted to interact with an abutment portion (17a 2, 17b 2) of the container and thereby counteracting the container from being unintentionally dismounted from the guide (20, 20b) in the longitudinal direction, a local dilatation at least partly extending in a transverse direction (T 1, T 2) allowing the container to be mounted/dismounted by manoeuvring a portion of the container via the dilatation thereby allowing the abutment portion (17a 2, 17b 2) to circumnavigate the protrusion, characterised in that the guide (20, 20b) further comprises an attachable plug adapted to be attached to the track after mounting of the container on the guide (20, 20b), such that the plug occupies at least a portion of the dilatation and thereby counteracting unintentional manoeuvring of said portion of the container via the dilatation and thereby counteracting the abutment portion (17a 2, 17b 2) from circumnavigating the protrusion.
A yarn winder comprising: a winding body including a plurality of take up tubes that are detachably connected with one another and aligned in axial directions, and a cradle which is able to rotatably support the winding body, and a connection member (41, 50, 60, 71) configured to detachably connect take up tubes with one another, wherein a plurality of packages can be formed by winding a plurality of supplied yarns onto the take up tubes, respectively characterized in that the connection member (41, 50, 60, 71) is structured to be a pipe extending in the axial directions of the take up tubes and has, at around respective end portions in the axial directions, insertion portions inserted into the take up tubes, and two neighboring take up tubes among the take up tubes are detachably connected with each other as the two insertion portions are inserted into the respective take up tubes, and each insertion portion is shorter than the take up tubes in the axial direction, and in the winding body the take up tubes protrude in the axial direction as compared to the connection member, wherein the diameter of the insertion portion is changeable at a part contacting the take up tube. a winding body including a plurality of take up tubes that are detachably connected with one another and aligned in axial directions, and a cradle which is able to rotatably support the winding body, and a connection member (41, 50, 60, 71) configured to detachably connect take up tubes with one another, wherein a plurality of packages can be formed by winding a plurality of supplied yarns onto the take up tubes, respectively characterized in that the connection member (41, 50, 60, 71) is structured to be a pipe extending in the axial directions of the take up tubes and has, at around respective end portions in the axial directions, insertion portions inserted into the take up tubes, and two neighboring take up tubes among the take up tubes are detachably connected with each other as the two insertion portions are inserted into the respective take up tubes, and each insertion portion is shorter than the take up tubes in the axial direction, and in the winding body the take up tubes protrude in the axial direction as compared to the connection member, wherein the diameter of the insertion portion is changeable at a part contacting the take up tube.
Heat-sensitive recording material comprising a carrier substrate and a heat-sensitive colour-forming layer, which contains at least one colour former and at least one phenol-free colour developer, characterised in that the at least one colour developer is the compound of formula Ar(NH-CO-NH-CO-NH-Ar 1) n, wherein Ar is an unsubstituted or substituted phenyl or naphthyl group, Ar 1 is an unsubstituted or substituted phenyl, naphthyl, pyridyl, thiazolyl or benzothiazolyl group, and n is 1 or 2.
A method performed at a first network function to provide edge service to a terminal device, comprising: receiving, a request for querying information associated to a location of a terminal device and IP address of a server for supporting an application; wherein the request includes an internet protocol, IP, address of the terminal device, and wherein the request further includes a fully qualified domain name, FQDN, of the application; obtaining, from a second network function, a global identifier of the terminal device, based on the IP address of the terminal device, wherein the global identifier comprises a generic public subscription identifier, GPSI, of the terminal device; obtaining a location of the terminal device, based on the GPSI or the IP address of the terminal device; determining the server for supporting the application, based on at least the location of the terminal device, the FQDN of the application, and the global identifier of the terminal device; and transmitting, information associated to the location of the terminal device and the IP address of the determined server. receiving, a request for querying information associated to a location of a terminal device and IP address of a server for supporting an application; wherein the request includes an internet protocol, IP, address of the terminal device, and wherein the request further includes a fully qualified domain name, FQDN, of the application; obtaining, from a second network function, a global identifier of the terminal device, based on the IP address of the terminal device, wherein the global identifier comprises a generic public subscription identifier, GPSI, of the terminal device; obtaining a location of the terminal device, based on the GPSI or the IP address of the terminal device; determining the server for supporting the application, based on at least the location of the terminal device, the FQDN of the application, and the global identifier of the terminal device; and transmitting, information associated to the location of the terminal device and the IP address of the determined server.
Drainage base configured to carry an electric cooking appliance comprising a tank provided with a drainage device comprising a valve which can occupy a closed stable return position and an open position, the drainage base comprising a drainage receptacle and a receptacle cover, the drainage base having a control member configured to displace the valve in open position when said drainage base carries the electric cooking appliance, the receptacle cover conserving a passage for the flow of the cooking bath into the drainage receptacle when the drainage base carries the electric cooking appliance, characterised in that the drainage base comprises a cover stopper blocking the passage when the drainage base is in storage configuration of the cooking bath contained in the drainage receptacle, in that the drainage receptacle has a lower face comprising a housing, and in that the drainage receptacle and the receptacle cover can occupy a stack configuration wherein the drainage receptacle rests on the receptacle cover and wherein the housing houses the cover stopper closing the passage of the receptacle cover.
Egg tray for supporting eggs in an incubation chamber, the egg tray comprising: a first grid extending in a bottom plane, the first grid comprising one or more adjacent rows with substantially straight ribs which are slanted and extend from one side of the row to the other side of the row to form a plurality of adjacent openings, wherein every other opening in the row defines an egg accommodation, wherein the ribs are configured for contacting an egg at a contact area of the ribs between two rib ends in order to support an egg in the egg accommodation, wherein the openings are defined by three ribs and the openings have a substantially triangular shape, when projected in the bottom plane, wherein the egg tray further comprises a second grid, attached to the first grid, wherein the second grid is adapted to provide additional support to eggs when the tray is tilted, wherein the openings of the second grid are aligned with the egg accommodations to co-define these.
An Al-Zn-Si-Mg alloy coated steel strip that comprises a coating of an Al-Zn-Si-Mg alloy on a steel strip, with the coating thickness being greater than 7 micron and less than 30 micron, with the coating having coating thickness variations of no more than 40% in any given 5mm diameter section of the coating, with the alloy consisting of in percent by weight 40 to 60% Aluminium, 40 to 60% Zinc, 0.3 to 3% Silicon and 0.3 to 10% Magnesium as the main elements, and optionally more than 250ppm Strontium and less than 3000 ppm Strontium, and optionally Iron, Vanadium, and Chromium, and other elements that are present as unavoidable impurities, with the microstructure of the coating comprising Mg 2 Si particles, and with the distribution of the Mg 2 Si particles being such that there is no more than 10 wt.% of Mg 2 Si particles in the surface of the coating.
A medicament delivery device for delivering a medicament to a patient, wherein the medicament delivery device comprises: a housing; a holder within the housing for receiving a medicament cartridge; a piston rod (25, 27) for driving a bung of the medicament cartridge; a drive mechanism including a motor for providing an output drive to the piston rod for delivering the medicament; control means for controlling operation of the device; a bung sensor is provided for sensing when the piston rod is in contact with the bung; characterised in that: a latch sensor is provided for sensing the position of the holder as the holder moves from an open position to a closed position or a closed position to an open position, and a cartridge sensor (17, 19, 21) is provided for sensing the presence of a medicament cartridge in the holder; wherein the control means is operative for advancing the drive of the piston rod towards the bung when the latch sensor senses the holder is in the closed position and the cartridge sensor (17, 19, 21) senses the presence of a medicament cartridge.
A phase-contrast imaging detector, comprising: a plurality of pixels, each pixel comprising: a detection material that generates a measurable parameter in response to X-ray photons; and a plurality of sub-pixel resolution readout structures (98A, 98B, 98C), wherein the sub-pixel resolution readout structures are in an alternating pattern; readout circuitry configured to read out signals from the plurality of sub-pixel resolution readout structures, the detector being characterised in that the plurality of sub-pixel resolution readout structures comprises three electrodes forming a pattern of alternating arms comprising three interleaved combs. a plurality of pixels, each pixel comprising: a detection material that generates a measurable parameter in response to X-ray photons; and a plurality of sub-pixel resolution readout structures (98A, 98B, 98C), wherein the sub-pixel resolution readout structures are in an alternating pattern; a detection material that generates a measurable parameter in response to X-ray photons; and a plurality of sub-pixel resolution readout structures (98A, 98B, 98C), wherein the sub-pixel resolution readout structures are in an alternating pattern; readout circuitry configured to read out signals from the plurality of sub-pixel resolution readout structures, the detector being characterised in that the plurality of sub-pixel resolution readout structures comprises three electrodes forming a pattern of alternating arms comprising three interleaved combs.
A display control apparatus, comprising: a drawing controller to obtain coordinate information indicating a specific coordinate on a display surface that a user activity is detected, and generate 1) a first image layer having a first image drawn at a position indicated by the coordinate information to reflect the user activity and 2) a second image layer having a second image to be displayed together with the first image; and a memory that stores priority orders in displaying the first layer and the second layer, respectively, the first layer and the second layer to be superimposed one above the other, wherein the first image and the second image are to be formed so as to overlap one above the other at least partly, wherein the drawing controller obtains transparency value information indicating a transparency value input by the user, characterized in that when the priority order of the first image layer is higher than a priority order of the second image layer, the drawing controller displays a combined image in which the first image layer that is made transparent as indicated by the transparency value information is superimposed on the second image layer, and wherein, when the priority order of the second image layer is higher than the priority order of the first image layer, the drawing controller displays a combined image in which the second image layer that is made transparent as indicated by the transparency value information is superimposed on the first image layer. a drawing controller to obtain coordinate information indicating a specific coordinate on a display surface that a user activity is detected, and generate 1) a first image layer having a first image drawn at a position indicated by the coordinate information to reflect the user activity and 2) a second image layer having a second image to be displayed together with the first image; and a memory that stores priority orders in displaying the first layer and the second layer, respectively, the first layer and the second layer to be superimposed one above the other, wherein the first image and the second image are to be formed so as to overlap one above the other at least partly, wherein the drawing controller obtains transparency value information indicating a transparency value input by the user, characterized in that when the priority order of the first image layer is higher than a priority order of the second image layer, the drawing controller displays a combined image in which the first image layer that is made transparent as indicated by the transparency value information is superimposed on the second image layer, and wherein, when the priority order of the second image layer is higher than the priority order of the first image layer, the drawing controller displays a combined image in which the second image layer that is made transparent as indicated by the transparency value information is superimposed on the first image layer.
A method of selecting routing resources in a multi-chip integrated circuit device, the method comprising: placing, by a processor, a design on the multi-chip integrated circuit device to create an initial placement of the design; estimating, by the processor, based upon the initial placement of the design, a number of vias required to enable connections between chips (204, 206) of the multi-chip integrated circuit device that is placed with a portion of the design; identifying, by the processor, an area of a chip having a number of vias that is greater than a maximum number of vias for the area of the chip; selecting, by the processor, a partition window defining resources in the chip that is placed with the portion of the design, where in the partition window is selected to allow the number of vias to meet a maximum requirement of vias for the partition window; and re-placing, by the processor, the portion of the design within the partition window so that the number of vias in the area of the chip is within the maximum number of vias for the area. placing, by a processor, a design on the multi-chip integrated circuit device to create an initial placement of the design; estimating, by the processor, based upon the initial placement of the design, a number of vias required to enable connections between chips (204, 206) of the multi-chip integrated circuit device that is placed with a portion of the design; identifying, by the processor, an area of a chip having a number of vias that is greater than a maximum number of vias for the area of the chip; selecting, by the processor, a partition window defining resources in the chip that is placed with the portion of the design, where in the partition window is selected to allow the number of vias to meet a maximum requirement of vias for the partition window; and re-placing, by the processor, the portion of the design within the partition window so that the number of vias in the area of the chip is within the maximum number of vias for the area.
A disposable absorbent laminate, comprising: a first substrate layer comprising cellulosic fibrous material tissue, and a third substrate layer comprising cellulosic fibrous material tissue or spunlace nonwoven material comprised of cellulosic fiber; and a first absorbent matrix comprising particulate superabsorbent polymeric material; the first absorbent matrix being positioned between said first and third substrate layers and further comprising a network of filamentary adhesive, said filamentary adhesive adhering to and stabilizing said particulate superabsorbent polymeric material, and adhering adjacent ones of said substrate layers to each other to resist delamination of said absorbent laminate, characterised in that a second absorbent matrix comprising particulate superabsorbent polymeric material is positioned intermediate of said third substrate layer and a second substrate layer comprising cellulosic fibrous material tissue, the second absorbent matrix also further comprising a said network of filamentary adhesive; and the third substrate layer exhibits a Frazier porosity of at least about 1.524 m 3.s -1.m -2 (300 feet 3 /minute/foot 2), which porosity is at least about 0.356 m 3.s -1.m -2 (70 feet 3 /minute/foot 2) greater than the Frazier porosity of said first and second substrate layers. a first substrate layer comprising cellulosic fibrous material tissue, and a third substrate layer comprising cellulosic fibrous material tissue or spunlace nonwoven material comprised of cellulosic fiber; and a first absorbent matrix comprising particulate superabsorbent polymeric material; the first absorbent matrix being positioned between said first and third substrate layers and further comprising a network of filamentary adhesive, said filamentary adhesive adhering to and stabilizing said particulate superabsorbent polymeric material, and adhering adjacent ones of said substrate layers to each other to resist delamination of said absorbent laminate, characterised in that a second absorbent matrix comprising particulate superabsorbent polymeric material is positioned intermediate of said third substrate layer and a second substrate layer comprising cellulosic fibrous material tissue, the second absorbent matrix also further comprising a said network of filamentary adhesive; and the third substrate layer exhibits a Frazier porosity of at least about 1.524 m 3.s -1.m -2 (300 feet 3 /minute/foot 2), which porosity is at least about 0.356 m 3.s -1.m -2 (70 feet 3 /minute/foot 2) greater than the Frazier porosity of said first and second substrate layers.