mhurhangee/ep-ind-claims huggingface dataset:
A liquid treatment apparatus (10, 2500, 2700, 2800, 2900) comprising: an inlet configured to be connected to a source of liquid to be treated; at least one liquid treatment vessel (44, 1544, 1644, 1744, 2744, 2844, 2944, 3544, 3644, 3800) arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; and a source of ultraviolet radiation arranged in the liquid treatment vessel; wherein the source of ultraviolet radiation comprises a longitudinal axis oriented substantially parallel to a direction of flow of liquid past the source of ultraviolet radiation; wherein a boundary surface between the source of ultraviolet radiation and a liquid to be treated is provided with one or more cleaning elements; wherein the one or more cleaning elements extend in a longitudinal direction of the boundary surface; and wherein the cleaning elements comprise filaments or bristles, and the filaments or bristles are partially constructed from a photocatalytic material, fully constructed from a photocatalytic material, or coated with a photocatalytic material; characterised in that the cleaning elements are fixed to the liquid treatment vessel (44, 1544, 1644, 1744, 2744, 2844, 2944, 3544, 3644, 3800); and the liquid treatment vessel and the boundary surface are arranged to be rotationally moveable relative to one another around the longitudinal axis of the source of ultraviolet radiation to rotate the one or more cleaning elements with respect to the boundary surface. an inlet configured to be connected to a source of liquid to be treated; at least one liquid treatment vessel (44, 1544, 1644, 1744, 2744, 2844, 2944, 3544, 3644, 3800) arranged to expose liquid in the vessel to ultraviolet radiation in an advanced oxidation process reaction; and a source of ultraviolet radiation arranged in the liquid treatment vessel; wherein the source of ultraviolet radiation comprises a longitudinal axis oriented substantially parallel to a direction of flow of liquid past the source of ultraviolet radiation; wherein a boundary surface between the source of ultraviolet radiation and a liquid to be treated is provided with one or more cleaning elements; wherein the one or more cleaning elements extend in a longitudinal direction of the boundary surface; and wherein the cleaning elements comprise filaments or bristles, and the filaments or bristles are partially constructed from a photocatalytic material, fully constructed from a photocatalytic material, or coated with a photocatalytic material; characterised in that the cleaning elements are fixed to the liquid treatment vessel (44, 1544, 1644, 1744, 2744, 2844, 2944, 3544, 3644, 3800); and the liquid treatment vessel and the boundary surface are arranged to be rotationally moveable relative to one another around the longitudinal axis of the source of ultraviolet radiation to rotate the one or more cleaning elements with respect to the boundary surface.
A rocket motor comprising: a pulse chamber containing a burnable propellant grain (28, 34, 35, 48); a propellant inhibited center bore bonded to surfaces of the burnable propellant grain; and at least one conductive wire (46, 62, 70, 72, 76, 77) coupled to the burnable propellant grain and arranged in variable regions along the propellant inhibited center bore, the rocket motor being characterised in that the at least one conductive wire is configured for passive or active activation to ignite and ablate the propellant inhibited center bore that subsequently burns in the variable regions, wherein the at least one conductive wire is interposed between the propellant inhibited center bore and the propellant grain to increase a burn surface area of the burnable propellant grain via ablation of the propellant inhibited center bore; wherein the propellant inhibited center bore is arranged to be ignited by an electro-chemical reaction when electrically activated. a pulse chamber containing a burnable propellant grain (28, 34, 35, 48); a propellant inhibited center bore bonded to surfaces of the burnable propellant grain; and at least one conductive wire (46, 62, 70, 72, 76, 77) coupled to the burnable propellant grain and arranged in variable regions along the propellant inhibited center bore, the rocket motor being characterised in that the at least one conductive wire is configured for passive or active activation to ignite and ablate the propellant inhibited center bore that subsequently burns in the variable regions, wherein the at least one conductive wire is interposed between the propellant inhibited center bore and the propellant grain to increase a burn surface area of the burnable propellant grain via ablation of the propellant inhibited center bore; wherein the propellant inhibited center bore is arranged to be ignited by an electro-chemical reaction when electrically activated.
An electronic vapour provision device comprising a power cell, a vaporiser and a liquid store, where the vaporiser comprises a heating element and a heating element support, wherein the liquid store comprises a porous material, and wherein the heating element support is or forms part of the liquid store.
A telecommunications enclosure comprising: a housing including a base and a dome that connects to the base, the base of the housing defining a main opening that extends through the base from an outer end of the base to an inner end of the base, wherein the inner end of the base connects with an open end of the dome at a sealed interface, wherein latches of the base are used to latch the dome to the base; an insert assembly that fits within the housing, the insert assembly including a sealing unit that fits within the base and that defines a plurality of cable ports, the insert assembly also including a frame attached to the sealing unit and a telecommunications component mounted to the frame, wherein the frame is housed within the dome when the sealing unit is fitted within the base; a mounting bracket for mounting the housing at a desired mounting location; wherein the mounting bracket has a first securement interface for attaching the mounting bracket to the base of the housing, wherein when the mounting bracket is attached to the base by the first securement interface the insert assembly can be removed from the housing without detaching the base from the mounting bracket; and the mounting bracket has a second securement interface for attaching the mounting bracket to the insert assembly, wherein when the mounting bracket is attached to the insert assembly by the second securement interface the base and the dome can be removed from the insert assembly without detaching the insert assembly from the mounting bracket. a housing including a base and a dome that connects to the base, the base of the housing defining a main opening that extends through the base from an outer end of the base to an inner end of the base, wherein the inner end of the base connects with an open end of the dome at a sealed interface, wherein latches of the base are used to latch the dome to the base; an insert assembly that fits within the housing, the insert assembly including a sealing unit that fits within the base and that defines a plurality of cable ports, the insert assembly also including a frame attached to the sealing unit and a telecommunications component mounted to the frame, wherein the frame is housed within the dome when the sealing unit is fitted within the base; a mounting bracket for mounting the housing at a desired mounting location; wherein the mounting bracket has a first securement interface for attaching the mounting bracket to the base of the housing, wherein when the mounting bracket is attached to the base by the first securement interface the insert assembly can be removed from the housing without detaching the base from the mounting bracket; and the mounting bracket has a second securement interface for attaching the mounting bracket to the insert assembly, wherein when the mounting bracket is attached to the insert assembly by the second securement interface the base and the dome can be removed from the insert assembly without detaching the insert assembly from the mounting bracket.
Computer-implemented method for detecting a cornea vertex, wherein a frontal image of a head and a lateral image of the head are provided, said images being calibrated to one another, wherein the position of the cornea vertex in space is determined from the frontal image and the lateral image by means of a geometric position determination, characterized in that the position of the cornea vertex in space is determined to a first approximation as the point of intersection q of a first view ray, tangential to the cornea, from a lateral camera recording the lateral image with a second view ray, directed onto the pupil, from a frontal camera recording the frontal image and in that the pupil is detected by means of feature extraction and/or feature matching and/or by means of machine learning by comparison with a multiplicity of data known in advance.
A vacuum cleaner comprising: a main casing; a driving wheel for enabling the main casing to travel; a travel control part for controlling drive of the driving wheel to thereby make the main casing autonomously travel; a plurality of image pickup part disposed apart from each other in the main casing for picking up images on a traveling-direction side of the main casing; an image generation part for generating a distance image of an object positioned on the traveling-direction side based on the images picked up by the plurality of image pickup part; and a discrimination part for discriminating whether or not a picked-up object is an obstacle based on the distance image generated by the image generation part, characterized in that, the discrimination part discriminates that, when the object in the distance image generated by the image generation part is positioned closer than a specified set distance which is previously set, the object is an obstacle; and the image generation part generates the distance image by use of respective data within a specified image range among data of the images picked up by the plurality of image pickup part, and changes the specified image range in accordance with the specified set distance. a main casing; a driving wheel for enabling the main casing to travel; a travel control part for controlling drive of the driving wheel to thereby make the main casing autonomously travel; a plurality of image pickup part disposed apart from each other in the main casing for picking up images on a traveling-direction side of the main casing; an image generation part for generating a distance image of an object positioned on the traveling-direction side based on the images picked up by the plurality of image pickup part; and a discrimination part for discriminating whether or not a picked-up object is an obstacle based on the distance image generated by the image generation part, characterized in that, the discrimination part discriminates that, when the object in the distance image generated by the image generation part is positioned closer than a specified set distance which is previously set, the object is an obstacle; and the image generation part generates the distance image by use of respective data within a specified image range among data of the images picked up by the plurality of image pickup part, and changes the specified image range in accordance with the specified set distance.
An image acquisition system comprising: a radiation source configured to output radiation toward an object; a rotating stage configured to rotate the object around a rotation axis; a radiation camera having an input surface to which the radiation transmitted through the object is input and an image sensor capable of time delay integration, TDI, control and configured to capture an image of the input radiation and output image data; and an image processing apparatus configured to generate a radiographic image of the object at an imaging plane based on the image data, wherein an angle (β) formed between the rotation axis of the rotating stage and the input surface of the radiation camera is an acute angle and is set in accordance with a focus-object distance, FOD, which is a distance between the radiation source and an imaging plane in the object such that a ratio between an enlargement factor at an inner peripheral portion of the imaging plane of the object and an enlargement factor at an outer peripheral portion of the imaging plane of the object are reciprocal to a ratio between a speed of the inner peripheral portion and a speed of the outer peripheral portion, and the radiation camera is configured to perform TDI control in the image sensor in synchronization with a rotational speed of the object rotated by the rotating stage. a radiation source configured to output radiation toward an object; a rotating stage configured to rotate the object around a rotation axis; a radiation camera having an input surface to which the radiation transmitted through the object is input and an image sensor capable of time delay integration, TDI, control and configured to capture an image of the input radiation and output image data; and an image processing apparatus configured to generate a radiographic image of the object at an imaging plane based on the image data, wherein an angle (β) formed between the rotation axis of the rotating stage and the input surface of the radiation camera is an acute angle and is set in accordance with a focus-object distance, FOD, which is a distance between the radiation source and an imaging plane in the object such that a ratio between an enlargement factor at an inner peripheral portion of the imaging plane of the object and an enlargement factor at an outer peripheral portion of the imaging plane of the object are reciprocal to a ratio between a speed of the inner peripheral portion and a speed of the outer peripheral portion, and the radiation camera is configured to perform TDI control in the image sensor in synchronization with a rotational speed of the object rotated by the rotating stage.
Antenna system comprising: - a first module fulfilling the radiofrequency function and containing at least one antenna and at least one radio connection box, which includes a first contact surface, - a second assembly module ensuring the positioning and fastening of the antenna system onto a mount, which includes a second contact surface, said antenna system being characterised in that the joining of the first contact surface and the second contact surface forms a guide rail, and in that it further comprises an interface means, providing a rotating junction between the first module and the second module. - a first module fulfilling the radiofrequency function and containing at least one antenna and at least one radio connection box, which includes a first contact surface, - a second assembly module ensuring the positioning and fastening of the antenna system onto a mount, which includes a second contact surface,
A device for the transdermal delivery of rivastigmine, characterized by comprising an adhesive matrix layer, a backing layer and a release or protective liner, wherein the adhesive matrix layer comprises rivastigmine, an amount of triethylcitrate of between 0.2% and 10%, and an amount of hydrochloric acid of between 0.05% and 5%.
A time-of-flight sensor device, comprising: an illumination component configured to emit a light beam toward a viewing space; a first distance determination component configured to generate first distance information for a pixel corresponding to an object in the viewing space based on time-of-flight analysis of reflected light incident on a photo-receiver array; a second distance determination component configured to generate second distance information for the pixel corresponding to the object; a distance adjustment component configured to apply a correction factor to the first distance information based on second distance information; and a receiving lens element configured to receive the reflected light and to direct the reflected light to the photo-receiver array, wherein the second distance determination component generates the second distance information based on a focal distance of the receiving lens element as the receiving lens element is focused on the object. an illumination component configured to emit a light beam toward a viewing space; a first distance determination component configured to generate first distance information for a pixel corresponding to an object in the viewing space based on time-of-flight analysis of reflected light incident on a photo-receiver array; a second distance determination component configured to generate second distance information for the pixel corresponding to the object; a distance adjustment component configured to apply a correction factor to the first distance information based on second distance information; and a receiving lens element configured to receive the reflected light and to direct the reflected light to the photo-receiver array, wherein the second distance determination component generates the second distance information based on a focal distance of the receiving lens element as the receiving lens element is focused on the object.
A cooking apparatus comprising: a cooking plate including a cooking area divided into a plurality of sub-areas; a plurality of induction heating coil groups (210, 220, 230, and 240) installed at a bottom of the cooking plate so as to correspond to each of the plurality of sub-areas; a plurality of drive assemblies (321, 322, 323, and 324) configured to supply a driving current to each of the plurality of induction heating coil groups; a user interface configured to receive a compartment command that divides the cooking area of the cooking plate into the plurality of sub-areas; a sub-assembly configured to determine the induction heating coil group corresponding to the sub-area in which a cooking vessel is placed among the plurality of sub-areas when the compartment command is input; and a controller configured to control the drive assembly capable of supplying the driving current to the determined induction heating coil group such that a driving current corresponding to a preset target temperature is distributed to an induction heating coil overlapping the cooking vessel, wherein the sub-assembly is separated from the plurality of drive assemblies (321, 322, 323, and 324). a cooking plate including a cooking area divided into a plurality of sub-areas; a plurality of induction heating coil groups (210, 220, 230, and 240) installed at a bottom of the cooking plate so as to correspond to each of the plurality of sub-areas; a plurality of drive assemblies (321, 322, 323, and 324) configured to supply a driving current to each of the plurality of induction heating coil groups; a user interface configured to receive a compartment command that divides the cooking area of the cooking plate into the plurality of sub-areas; a sub-assembly configured to determine the induction heating coil group corresponding to the sub-area in which a cooking vessel is placed among the plurality of sub-areas when the compartment command is input; and a controller configured to control the drive assembly capable of supplying the driving current to the determined induction heating coil group such that a driving current corresponding to a preset target temperature is distributed to an induction heating coil overlapping the cooking vessel, wherein the sub-assembly is separated from the plurality of drive assemblies (321, 322, 323, and 324).
A small- diameter endoscope surgical instrument (1; 1a) of coaxial and multiplex-pipe structure, comprising: a small-diameter endoscope; an inner pipe, having an outside diameter same as the diameter of a pipe part of the small-diameter endoscope, and being used when the small-diameter endoscope surgical instrument (1; 1a) is inserted into a body, and being replaced with the small-diameter endoscope after the insertion of the small-diameter endoscope surgical instrument (1; 1a); a guide pipe, in which the small-diameter endoscope or the inner pipe is inserted and in which the small-diameter endoscope or the inner pipe is supported so as to be movable in its axial direction; a treatment pipe, having one or more treatment means, such as an electrode, a blade or a hook, at its leading end, and in which the guide pipe is inserted and in which the guide pipe is supported so as to be movable in its axial direction; and operation handles (13, 22, 32, 42), independently included to the small-diameter endoscope, the inner pipe, the guide pipe, and the treatment pipe, at their each proximate end, (that is their each end located outside of a body of a patient being operated with the small-diameter endoscope surgical instrument), and being able to change their relative positions in their axial direction and some of their rotating angles. a small-diameter endoscope; an inner pipe, having an outside diameter same as the diameter of a pipe part of the small-diameter endoscope, and being used when the small-diameter endoscope surgical instrument (1; 1a) is inserted into a body, and being replaced with the small-diameter endoscope after the insertion of the small-diameter endoscope surgical instrument (1; 1a); a guide pipe, in which the small-diameter endoscope or the inner pipe is inserted and in which the small-diameter endoscope or the inner pipe is supported so as to be movable in its axial direction; a treatment pipe, having one or more treatment means, such as an electrode, a blade or a hook, at its leading end, and in which the guide pipe is inserted and in which the guide pipe is supported so as to be movable in its axial direction; and operation handles (13, 22, 32, 42), independently included to the small-diameter endoscope, the inner pipe, the guide pipe, and the treatment pipe, at their each proximate end, (that is their each end located outside of a body of a patient being operated with the small-diameter endoscope surgical instrument), and being able to change their relative positions in their axial direction and some of their rotating angles.
An electrophoretic display film comprising microcups, wherein at least a plurality of the microcups each comprise a wavy partition wall (81; 91), and wherein wavy partition walls in different microcups differ from each other in at least one of pitch (P1, P2, P3) and amplitude (A, A', A"), where pitch means the distance between successive points at which the wavy partition wall (81; 91) crosses the path of a straight reference line extending between the same vertices as the wavy partition wall (81; 91) and amplitude (A, A', A") refers to maximum distance between the wavy partition wall (81; 91) and the aforementioned straight reference line.