mhurhangee/ep-ind-claims huggingface dataset:
A method for a 3D virtual training system including a 3D display screen and an operating device, comprising: - initializing a virtual medical training session to be displayed on the 3D display screen, 3D display contents including at least a 3D virtual image of a surgery site, - obtaining user interaction inputs via the operating device and the 3D display screen, and displaying on the 3D display screen a virtual surgery device and a virtual surgery operation on the surgery site by the virtual surgery device, - determining an operation consequence based on the user interaction inputs and the surgery site, - rendering the operation consequence based on the surgery site and effects of the virtual surgery operation, and - displaying 3D virtual images of the rendered operation consequence on the 3D display screen, characterized in that the operating device is retractable, and obtaining user interaction inputs via the operating device and the 3D display screen includes: - sensing a contacting force at a contact point between the retractable operating device and the 3D display screen, - calculating a degree of retraction of the retractable operating device with respect to the 3D display screen based on the contacting force, and - displaying a 3D image of the retracted portion of the retractable operating device on the 3D display screen as virtual medical device. - initializing a virtual medical training session to be displayed on the 3D display screen, 3D display contents including at least a 3D virtual image of a surgery site, - obtaining user interaction inputs via the operating device and the 3D display screen, and displaying on the 3D display screen a virtual surgery device and a virtual surgery operation on the surgery site by the virtual surgery device, - determining an operation consequence based on the user interaction inputs and the surgery site, - rendering the operation consequence based on the surgery site and effects of the virtual surgery operation, and - displaying 3D virtual images of the rendered operation consequence on the 3D display screen, characterized in that the operating device is retractable, and obtaining user interaction inputs via the operating device and the 3D display screen includes: - sensing a contacting force at a contact point between the retractable operating device and the 3D display screen, - calculating a degree of retraction of the retractable operating device with respect to the 3D display screen based on the contacting force, and - displaying a 3D image of the retracted portion of the retractable operating device on the 3D display screen as virtual medical device.
An exhaust gas treatment device for treating exhaust gas of the combustion unit, comprising an exhaust gas system with a connecting device for connecting the exhaust gas system to the combustion unit and arranged in the exhaust gas system an oxidation catalyst, a reduction catalyst for the selective catalytic reduction and a particle filter, wherein the oxidation catalyst is arranged upstream of the reduction catalyst and the reduction catalyst upstream of the particle filter and a metering module is arranged between the oxidation catalyst and the reduction catalyst, wherein the reduction catalyst is arranged far upstream in the exhaust gas system in the direction of the exhaust gas flow in such a manner that the heat of the exhaust gas passing through the reduction catalyst suffices, in order to bring the reduction catalyst to an operating temperature, wherein the metering module is arranged in a connecting module characterized in that, wherein the particle filter is arranged at a vertical height lower than the connecting device on the side of the combustion unit, wherein the oxidation catalyst, the metering module, the reduction catalyst and the particle filter are arranged on a side of the combustion unit and the oxidation catalyst is arranged at a vertical height at the height of the connecting device, wherein the exhaust gas treatment device furthermore has a low-pressure exhaust gas recirculation.
A speaker comprising a first unit (20, 40, 50, 60) and a second unit (21, 41, 51, 61) each of which is configured to output sound, wherein said first unit (20, 40, 50, 60) includes: a first diaphragm which vibrates back and forth to radiate sound; characterised by a plurality of suspensions (26a, 26b, 26c, 26d) which support an outer periphery of said first diaphragm at mutually different positions, and wherein at least one air passage (35a, 35b, 55a, 55b, 64a, 64b, 44, 45) for channeling sound outside said second unit (21, 41, 51, 61) is provided between two neighboring of said plurality of suspensions (26a, 26b, 26c, 26d). a first diaphragm which vibrates back and forth to radiate sound; characterised by a plurality of suspensions (26a, 26b, 26c, 26d) which support an outer periphery of said first diaphragm at mutually different positions, and wherein at least one air passage (35a, 35b, 55a, 55b, 64a, 64b, 44, 45) for channeling sound outside said second unit (21, 41, 51, 61) is provided between two neighboring of said plurality of suspensions (26a, 26b, 26c, 26d).
An image sensing device comprising: a first image sensor for capturing a luminance image; a second image sensor for capturing a first chrominance image; a third image sensor for capturing a second chrominance image; and an image processing module for combining the luminance image, the first chrominance image, and the second chrominance image, to form a composite image; the first image sensor being positioned between the second and third image sensors; characterised by: the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images (125a, 125c). a first image sensor for capturing a luminance image; a second image sensor for capturing a first chrominance image; a third image sensor for capturing a second chrominance image; and an image processing module for combining the luminance image, the first chrominance image, and the second chrominance image, to form a composite image; the first image sensor being positioned between the second and third image sensors; characterised by: the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images (125a, 125c). the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images (125a, 125c).
Ski carrier clamp mountable on a cross bar of a vehicle roof carrier, the ski carrier clamp comprising an elongate base part and an elongate top part wherein a first end portion of said elongate base part is hingedly coupled to a first end portion of said elongate top part by means of a hinge mechanism, characterized in that said hinge mechanism comprises a guiding portion in which a guided element is slidably guided such that said first end portion of said elongate top part and said first end portion of said elongate base part are movable with respect to each other.
A method for directing a waste fluid from a radiopharmaceutical synthesis device to a waste vessel comprising the steps of: serially connecting a primary waste vessel to a secondary waste vessel with an elongate fluid conduit, including a waste valve connected to the fluid conduit extending between the primary waste vessel and secondary waste vessel, wherein the primary waste vessel includes an elongate discharge conduit extending substantially to a lowest surface within the primary waste vessel such that the discharge conduit is connected to the fluid conduit; opening the waste valve so as to allow fluid communication between cavities (35, 55) of the primary and secondary waste vessels (30, 50); drawing a low pressure in both waste vessels (30, 50), wherein the low pressure in the secondary waste vessel is drawn through the primary waste vessel; closing the waste valve so as to fluidically isolate the secondary waste vessel from the primary waste vessel; discharging the waste fluid through a pump valve into the primary waste vessel, and opening the waste valve so that the low pressure in the secondary waste vessel evacuates the waste fluid from the primary waste vessel into the secondary waste vessel. serially connecting a primary waste vessel to a secondary waste vessel with an elongate fluid conduit, including a waste valve connected to the fluid conduit extending between the primary waste vessel and secondary waste vessel, wherein the primary waste vessel includes an elongate discharge conduit extending substantially to a lowest surface within the primary waste vessel such that the discharge conduit is connected to the fluid conduit; opening the waste valve so as to allow fluid communication between cavities (35, 55) of the primary and secondary waste vessels (30, 50); drawing a low pressure in both waste vessels (30, 50), wherein the low pressure in the secondary waste vessel is drawn through the primary waste vessel; closing the waste valve so as to fluidically isolate the secondary waste vessel from the primary waste vessel; discharging the waste fluid through a pump valve into the primary waste vessel, and opening the waste valve so that the low pressure in the secondary waste vessel evacuates the waste fluid from the primary waste vessel into the secondary waste vessel.
An in vitro dissolution method comprising agitating a solution placed in a vessel using a mobile paddle; wherein the solution comprises a solute and a media; and wherein the mobile paddle is submerged in the solution; characterised in that the solution further comprises a plurality of beads; wherein the plurality of beads is positioned between the solute and the mobile paddle.
Method for producing a suspension of microfibrillated cellulose having a diameter of 2 - 60 nm and a length less than 500 μm, comprising at least the following steps: - obtaining an aqueous suspension of natural cellulose fibres, - adding to the suspension of natural cellulose fibres an additive, which consists of at least one natural polymer selected from carboxymethyl cellulose, methyl cellulose, hydroxypropyl cellulose, starch, carrageenan, locust bean gum, tamarind gum, chitosan, chitin, guar gum, cellulosic derivatives, such as nanofibrillated cellulose, and any of their mixtures, - feeding the obtained mixture consisting of natural cellulose fibres and the additive directly into a homogenizer or a fluidizer after the addition of the additive to the suspension of natural cellulose fibres, and - obtaining a suspension of microfibrillated cellulose. - obtaining an aqueous suspension of natural cellulose fibres, - adding to the suspension of natural cellulose fibres an additive, which consists of at least one natural polymer selected from carboxymethyl cellulose, methyl cellulose, hydroxypropyl cellulose, starch, carrageenan, locust bean gum, tamarind gum, chitosan, chitin, guar gum, cellulosic derivatives, such as nanofibrillated cellulose, and any of their mixtures, - feeding the obtained mixture consisting of natural cellulose fibres and the additive directly into a homogenizer or a fluidizer after the addition of the additive to the suspension of natural cellulose fibres, and - obtaining a suspension of microfibrillated cellulose.
An electronic device comprising: a flexible display; at least one processor; and, memory storing instructions which, when executed by the at least one processor, cause the electronic device to: display, on a first portion of the flexible display, a first shortcut icon for executing a first application on the flexible display in a state in which a display area comprises the first portion of the flexible display of the electronic device that is exposed to an outside, detect a first input to extend the display area from the first portion to expose a second portion including the first portion of the flexible display to the outside, and extend the first shortcut icon to be displayed as a first extended shortcut icon, on the second portion when a size of the second portion is a first threshold size or more, based on the first input, and wherein the first extended shortcut icon includes at least one menu for executing at least one designated function of the first application. a flexible display; at least one processor; and, memory storing instructions which, when executed by the at least one processor, cause the electronic device to: display, on a first portion of the flexible display, a first shortcut icon for executing a first application on the flexible display in a state in which a display area comprises the first portion of the flexible display of the electronic device that is exposed to an outside, detect a first input to extend the display area from the first portion to expose a second portion including the first portion of the flexible display to the outside, and extend the first shortcut icon to be displayed as a first extended shortcut icon, on the second portion when a size of the second portion is a first threshold size or more, based on the first input, and display, on a first portion of the flexible display, a first shortcut icon for executing a first application on the flexible display in a state in which a display area comprises the first portion of the flexible display of the electronic device that is exposed to an outside, detect a first input to extend the display area from the first portion to expose a second portion including the first portion of the flexible display to the outside, and extend the first shortcut icon to be displayed as a first extended shortcut icon, on the second portion when a size of the second portion is a first threshold size or more, based on the first input, and wherein the first extended shortcut icon includes at least one menu for executing at least one designated function of the first application.
Multi-purpose shoe, comprising an outer shoe and an inner shoe, wherein it is provided that, - the outer shoe has an outer shoe outsole and an outer shoe upper; - the inner shoe is formed as a textile sock which has a footbed and/or an insole and an inner shoe upper; and - the inner shoe is aligned in the region of the outer side of its sole region and the outer shoe is aligned in the region of the inner side of its sole region by means of the design at least in regions to form positive-locking attachment to each other, wherein the outer shoe outsole comprises an outer shoe bottom, a toecap, a counter and lateral connecting sections extended between the toecap and counter, characterised in that the outer shoe upper is releasably connected to the outer shoe outsole and the outer shoe upper is formed to be gaitor-shaped, by the lower edge of the outer shoe upper overlapping the upper edge of the outer shoe outsole. - the outer shoe has an outer shoe outsole and an outer shoe upper; - the inner shoe is formed as a textile sock which has a footbed and/or an insole and an inner shoe upper; and - the inner shoe is aligned in the region of the outer side of its sole region and the outer shoe is aligned in the region of the inner side of its sole region by means of the design at least in regions to form positive-locking attachment to each other, wherein the outer shoe outsole comprises an outer shoe bottom, a toecap, a counter and lateral connecting sections extended between the toecap and counter,
A metal-mesh tunic for easy donning and doffing without the need for the removal of headgear (130, 135), the metal-mesh tunic comprising: a metal-mesh fabric comprising a plurality of interconnecting metal rings (815, 825), the metal-mesh fabric having an apron portion extending from a neck region to at least a waist region, the metal-mesh fabric having two sleeves, each of the two sleeves connecting to the apron portion; and a closure system having an open mode and a closed mode, wherein when in the closed mode, a neck region is securely closed to present a closed-figure aperture through which a user's neck and head project, when worn, and when in the open mode, the neck region is opened to present an open-figure aperture such that the apron portion can be freely draped onto the front of the user, when the user inserts each of the user's arms into each corresponding one of the tunic's two sleeves. a metal-mesh fabric comprising a plurality of interconnecting metal rings (815, 825), the metal-mesh fabric having an apron portion extending from a neck region to at least a waist region, the metal-mesh fabric having two sleeves, each of the two sleeves connecting to the apron portion; and a closure system having an open mode and a closed mode, wherein when in the closed mode, a neck region is securely closed to present a closed-figure aperture through which a user's neck and head project, when worn, and when in the open mode, the neck region is opened to present an open-figure aperture such that the apron portion can be freely draped onto the front of the user, when the user inserts each of the user's arms into each corresponding one of the tunic's two sleeves.
A system for detecting plastics in a maritime, estuary or river environment, characterized in that the system is further used for detecting macro-plastics, micro-plastics and nano-plastics and that the system comprises: a plurality of detection devices (101a, 101b, 101c) for detecting the plastics, the macro-plastics, the micro-plastics and the nano-plastics in the environment, the detection devices (101a, 101b, 101c) being configured for detection using different detection wavelengths; and a data processing device, comprising a communication interface and a processor, wherein the communication interface is configured to receive detection signals from the plurality of detection devices (101a, 101b, 101c), and wherein the processor is configured to determine locations of the plastics, the macro-plastics, the micro-plastics and the nano-plastics in the environment upon the basis of the received detection signals within a common coordinate system. a plurality of detection devices (101a, 101b, 101c) for detecting the plastics, the macro-plastics, the micro-plastics and the nano-plastics in the environment, the detection devices (101a, 101b, 101c) being configured for detection using different detection wavelengths; and a data processing device, comprising a communication interface and a processor, wherein the communication interface is configured to receive detection signals from the plurality of detection devices (101a, 101b, 101c), and wherein the processor is configured to determine locations of the plastics, the macro-plastics, the micro-plastics and the nano-plastics in the environment upon the basis of the received detection signals within a common coordinate system.
A printing method comprising: an applying step of applying a latex ink onto a transfer medium to form an ink applied surface; a heating step of heating the transfer medium to increase the viscosity of the latex ink; a transfer step of contacting and transferring the latex ink on the transfer medium to a printing target; characterized in that: the applying step and the heating step are simultaneously performed by applying the latex ink onto the transfer medium while heating the transfer medium, and the method further comprises: a drying step of drying the latex ink on the printing target. an applying step of applying a latex ink onto a transfer medium to form an ink applied surface; a heating step of heating the transfer medium to increase the viscosity of the latex ink; a transfer step of contacting and transferring the latex ink on the transfer medium to a printing target; characterized in that: the applying step and the heating step are simultaneously performed by applying the latex ink onto the transfer medium while heating the transfer medium, and the method further comprises: a drying step of drying the latex ink on the printing target. the applying step and the heating step are simultaneously performed by applying the latex ink onto the transfer medium while heating the transfer medium, and the method further comprises: a drying step of drying the latex ink on the printing target. a drying step of drying the latex ink on the printing target.
Method for operating a microscopy system, wherein a pivot point is defined, wherein the microscopy system is operated in such a way that a microscope of the microscopy system moves around the pivot point, wherein an intersection of an optical axis of the microscope and a reference surface is determined as the pivot point, wherein the pose of the reference surface is defined in a focal position-independent reference coordinate system and the pivot point is determined as the intersection of the optical axis with the thus defined reference surface in the reference coordinate system, wherein the reference surface is determined, characterized in that information about a pose of the reference surface is stored in a retrievable form, wherein the stored information about the reference surface is retrieved in order to determine the pivot point after a change in the pose of the optical axis, and the pivot point is determined as the intersection of the optical axis in its current pose with the stored reference surface.