mhurhangee/patent-ind-claim-en huggingface dataset:
A clamp of a device on a production line at least partially submerged in a body of water , comprising: - a plurality of contact pads with the production line defining a central passage for insertion of the production line with a central axis (B-B'), - a belt for clamping the pads against the production line , capable of being maneuvered between an unclamped configuration disengaged from the production line and a configuration clamping the pads against the production line ; - a clamping actuator for the clamp , mounted on a first point of the clamp , the clamping actuator having a grasping member for a second point of the clamp , the grasping member being movable along a travel axis between a deployed position and a retracted position bringing the second point closer to the first point , characterized by a spacing-apart mechanism of the grasping member able to move the travel axis of the grasping member to move the grasping member between a spaced-apart configuration of the second point in the deployed position of the grasping member and a clamping configuration of the second point in an intermediate position between the deployed position and the retracted position. - a plurality of contact pads with the production line defining a central passage for insertion of the production line with a central axis (B-B'), - a belt for clamping the pads against the production line , capable of being maneuvered between an unclamped configuration disengaged from the production line and a configuration clamping the pads against the production line ; - a clamping actuator for the clamp , mounted on a first point of the clamp , the clamping actuator having a grasping member for a second point of the clamp , the grasping member being movable along a travel axis between a deployed position and a retracted position bringing the second point closer to the first point ,
A thermal ground plane comprising: a bottom layer configured to enclose a working fluid, wherein the bottom layer has a thickness less than 60 microns; a top layer configured to enclose the working fluid, wherein a perimeter of the bottom layer and a perimeter of the top layer are hermetically sealed together by thermo-compression bonding, wherein the top layer has a thickness less than 60 microns, wherein the top layer consists essentially of a metal; a first plurality of pillars disposed on an interior surface of the the bottom layer ; a mesh layer disposed on the top of the first plurality of pillars and bonded with the top of the first plurality of pillars, wherein the mesh layer consists essentially of copper, or polymer encapsulated with copper, or stainless steel encapsulated with copper; and a second plurality of pillars disposed on an interior surface of the top layer within an area defined by the perimeter of the top layer and the second plurality of pillars extend from the top layer to the mesh layer and are not in contact with the bottom layer , wherein the spacing between each pillar of the second plurality of pillars is larger than two times of the diameter of each pillar of the second plurality of pillars; wherein the thermal ground plane has a thickness less than 300 microns. a bottom layer configured to enclose a working fluid, wherein the bottom layer has a thickness less than 60 microns; a top layer configured to enclose the working fluid, wherein a perimeter of the bottom layer and a perimeter of the top layer are hermetically sealed together by thermo-compression bonding, wherein the top layer has a thickness less than 60 microns, wherein the top layer consists essentially of a metal; a first plurality of pillars disposed on an interior surface of the the bottom layer ; a mesh layer disposed on the top of the first plurality of pillars and bonded with the top of the first plurality of pillars, wherein the mesh layer consists essentially of copper, or polymer encapsulated with copper, or stainless steel encapsulated with copper; and a second plurality of pillars disposed on an interior surface of the top layer within an area defined by the perimeter of the top layer and the second plurality of pillars extend from the top layer to the mesh layer and are not in contact with the bottom layer , wherein the spacing between each pillar of the second plurality of pillars is larger than two times of the diameter of each pillar of the second plurality of pillars; wherein the thermal ground plane has a thickness less than 300 microns.
An apparatus for detecting a tool comprising: an image processing unit adapted to detect a tool based on a 3D ultrasound image, comprising: a first tool detection module configured to perform a first tool detection procedure comprising: obtaining a set of planar sections from the 3D ultrasound image; identifying a tool shadow region present in a planar section of the set of planar sections; and determining the location of a tool plane section within the 3D ultrasound image, wherein the tool plane section represents a plane within the 3D image in which the entire length of the tool is present, based on the detected tool shadow region; a second tool detection module which is configured to perform a second tool detection procedure which comprises: detecting the tool based on a representation of the tool in the 3D volume image. a first tool detection module configured to perform a first tool detection procedure comprising: obtaining a set of planar sections from the 3D ultrasound image; identifying a tool shadow region present in a planar section of the set of planar sections; and determining the location of a tool plane section within the 3D ultrasound image, wherein the tool plane section represents a plane within the 3D image in which the entire length of the tool is present, based on the detected tool shadow region; obtaining a set of planar sections from the 3D ultrasound image; identifying a tool shadow region present in a planar section of the set of planar sections; and determining the location of a tool plane section within the 3D ultrasound image, wherein the tool plane section represents a plane within the 3D image in which the entire length of the tool is present, based on the detected tool shadow region; a second tool detection module which is configured to perform a second tool detection procedure which comprises: detecting the tool based on a representation of the tool in the 3D volume image.
A system , comprising: a camera to detect the position of a physical object positioned in a workspace; a projector to project first digital information in the workspace; a layering module to associate the physical object with a first layer in the workspace and to associate the projection of the first digital information with a second layer in the workspace and whereby the layering module maintains state information about the visual order of the layers; a user input module to receive user input; and a controller to control the visual order of the first and second layers via projection of the first digital information and to alter the projection of the first digital information to alter the visual order of the first and second layers in response to user input and the state information from the layering module such that foreground and background layers are swapped. a camera to detect the position of a physical object positioned in a workspace; a projector to project first digital information in the workspace; a layering module to associate the physical object with a first layer in the workspace and to associate the projection of the first digital information with a second layer in the workspace and whereby the layering module maintains state information about the visual order of the layers; a user input module to receive user input; and a controller to control the visual order of the first and second layers via projection of the first digital information and to alter the projection of the first digital information to alter the visual order of the first and second layers in response to user input and the state information from the layering module such that foreground and background layers are swapped.
Transport apparatus for containers , which has a transfer device for transferring a container to a movable treatment device , which has at least one container holder which is stationary with respect to the treatment device , and a takeover device for taking over a container from the movable treatment device , wherein the transfer device and the takeover device are arranged on a common movable carrier , wherein the transfer device and the takeover device are movable in sections along a transport path of the containers, wherein the transfer device and the takeover device for transferring or taking over a container can be synchronized at least in sections with a movement of the container holder , characterized in that at least the transfer device and/or the takeover device can be moved along a direction which has a directional component running perpendicular to the direction of movement of the movable carrier.
Applicator of an eye make-up product in the form of powder comprising a support having at a free end thereof a spongy element , the spongy element is made by flocking on top of a core of plastic material, the spongy element having a first make-up front surface with linear footprint, and a single second lateral flat surface having a thick footprint larger than that with linear footprint, so that the first surface can be used to create lines of make-up product delivered by the spongy element, while the second surface can be used to fill whole areas of large surface, such as the eyelids, with make-up product, the first surface and the second surface being planar, the single second surface being the major area flat surface of the applicator itself, the spongy element having a first part and a second part arranged on opposite sides of a plane (A), the first part having a substantially parallelepiped shape with chamfers at the edges, the second part having a half-cylinder shape superimposed on the parallelepiped, the diameter of the half-cylinder, corresponding to width (L) of the parallelepiped, the second flat surface being defined by a cutting plane (B) of the parallelepiped and of the cylinder that is inclined with respect to a plane (C) containing the first surface, and passing in the vicinity of or at an edge (S) of the parallelepiped.
A sensor assembly comprising: a monolithic sensor mounting body comprising: a first flat surface ; a second flat surface disposed opposite the first flat surface ; a protrusion extending from the second flat surface and away from the first flat surface ; and an aperture that extends across the sensor mounting body from an opening in the first flat surface to an opening in the protrusion; a metallized coating disposed on at least a portion of the first flat surface of the sensor mounting body, a pressure sensor that is coupled to the first flat surface such that the pressure sensor is in fluid communication with the aperture; one or more electronic components comprising an integrated circuit in electrical communication with the pressure sensor ; and a cover that covers the one or more electronic components and partially covers the first flat surface , wherein a first portion of the metallized coating is disposed within the cover and a second portion is disposed outside the cover , and wherein the first portion of the metallized coating is configured for electrical communication with the pressure sensor , via the integrated circuit, and the second portion of the metallized coating is configured for electrical communication with an external device and wherein the integrated circuit is stacked on top of the pressure sensor . a first flat surface ; a second flat surface disposed opposite the first flat surface ; a protrusion extending from the second flat surface and away from the first flat surface ; and an aperture that extends across the sensor mounting body from an opening in the first flat surface to an opening in the protrusion; a metallized coating disposed on at least a portion of the first flat surface of the sensor mounting body, a pressure sensor that is coupled to the first flat surface such that the pressure sensor is in fluid communication with the aperture; one or more electronic components comprising an integrated circuit in electrical communication with the pressure sensor ; and a cover that covers the one or more electronic components and partially covers the first flat surface , wherein a first portion of the metallized coating is disposed within the cover and a second portion is disposed outside the cover , and wherein the first portion of the metallized coating is configured for electrical communication with the pressure sensor , via the integrated circuit, and the second portion of the metallized coating is configured for electrical communication with an external device and wherein the integrated circuit is stacked on top of the pressure sensor .
Device for controlling a balloon during the unwinding of a yarn from a bobbin in a winding unit comprising: - a first containment element substantially tubular, having a longitudinal axis (x) and a through opening adapted to the passage of the yarn coming out of said bobbin ; - a support adapted to support said first containment element , and adapted to be fixed to a structure of a winding unit ; wherein said first containment element comprises a first containment component and a second containment component ; wherein said support comprises a first arm and a second arm on which said first containment component and said second containment component are respectively positioned; wherein said device comprises drive means adapted to move said arms and consequently said containment components , between two positions: a first position in which said containment components are spaced apart, and a second position in which said containment components are closer together with respect to the first position; characterized in that said device further comprises a second static containment element , arranged downstream of said first containment element , said second containment element being arranged with a second through opening comprising a base portion facing, in use, said first containment element , having a substantially rectangular cross-section with respect to said longitudinal axis (x). - a first containment element substantially tubular, having a longitudinal axis (x) and a through opening adapted to the passage of the yarn coming out of said bobbin ; - a support adapted to support said first containment element , and adapted to be fixed to a structure of a winding unit ; wherein said first containment element comprises a first containment component and a second containment component ; wherein said support comprises a first arm and a second arm on which said first containment component and said second containment component are respectively positioned; wherein said device comprises drive means adapted to move said arms and consequently said containment components , between two positions: a first position in which said containment components are spaced apart, and a second position in which said containment components are closer together with respect to the first position; characterized in that said device further comprises a second static containment element , arranged downstream of said first containment element , said second containment element being arranged with a second through opening comprising a base portion facing, in use, said first containment element , having a substantially rectangular cross-section with respect to said longitudinal axis (x).
A rubber composition, the rubber composition comprising: at least one elastomer, at least one filler, at least one thermoplastic polymer, wherein the thermoplastic polymer is a poly alkylacrylate, and wherein the alkylacrylate comprises a polycyclic substituent at its single bonded oxygen atom, characterized in that the number average molar weight Mn of the poly alkylacrylate as determined according to ASTM D5296 is at least 20,000 g/mol and the glass transition temperature Tg of the poly alkylacrylate as determined according to ASTM D3418 is at least 140°C. at least one elastomer, at least one filler, at least one thermoplastic polymer, wherein the thermoplastic polymer is a poly alkylacrylate, and wherein the alkylacrylate comprises a polycyclic substituent at its single bonded oxygen atom, characterized in that the number average molar weight Mn of the poly alkylacrylate as determined according to ASTM D5296 is at least 20,000 g/mol and the glass transition temperature Tg of the poly alkylacrylate as determined according to ASTM D3418 is at least 140°C.
A condition monitoring system for use with a reciprocating device, said condition monitoring system comprising: at least one pressure sensor configured to sense a pressure within the reciprocating device; at least one vibration sensor configured to sense a vibration of the reciprocating device; and characterised by a protection system communicatively coupled to said pressure sensor and said vibration sensor, said protection system configured to calculate a stiffness value of the reciprocating device based on the sensed pressure within the reciprocating device and the sensed vibration of the reciprocating device. at least one pressure sensor configured to sense a pressure within the reciprocating device; at least one vibration sensor configured to sense a vibration of the reciprocating device; and characterised by a protection system communicatively coupled to said pressure sensor and said vibration sensor, said protection system configured to calculate a stiffness value of the reciprocating device based on the sensed pressure within the reciprocating device and the sensed vibration of the reciprocating device.
Barrier element , in particular a construction fence, comprising at least - a tubular frame formed from two horizontal and two vertical tubular elements, and - a grid element connected to the tubular frame , wherein the horizontal tubular elements are guided through two opposing openings in the vertical tubular elements on both sides, and the vertical and horizontal tubular elements are arranged in a manner secured against rotation relative to one another, and wherein the openings in the vertical tubular elements are circular shaped, and the tubular elements have a circular cross-section, characterized in that , the circular shaped openings in the vertical tubular elements each have two bulges opposite one another along the circumference of the circular shaped opening , and that the horizontal tubular elements have a circular cross-section along their longitudinal axis in regions , which each has two bulges opposite one another along the diameter of the circular cross-section, so that the cross-section of the openings in the vertical tubular elements corresponds to the cross-section in areas of the horizontal tubular elements . - a tubular frame formed from two horizontal and two vertical tubular elements, and - a grid element connected to the tubular frame , wherein the horizontal tubular elements are guided through two opposing openings in the vertical tubular elements on both sides, and the vertical and horizontal tubular elements are arranged in a manner secured against rotation relative to one another, and wherein the openings in the vertical tubular elements are circular shaped, and the tubular elements have a circular cross-section, characterized in that , the circular shaped openings in the vertical tubular elements each have two bulges opposite one another along the circumference of the circular shaped opening , and that the horizontal tubular elements have a circular cross-section along their longitudinal axis in regions , which each has two bulges opposite one another along the diameter of the circular cross-section, so that the cross-section of the openings in the vertical tubular elements corresponds to the cross-section in areas of the horizontal tubular elements .
A method for the production of a non-woven strip , wherein by a dynamic control influence is exerted in a targeted manner on the distribution of orientations (OVB, OVC) of the fibres according to the position of said fibres in the widthwise direction of the strip ; characterized in that different distributions of orientation (OVB, OVC) are established at different points of the width of the strip at an intermediate production stage so that the non-woven textile obtained at a subsequent production stage exhibits at different points of the width of the textile sought respective distributions with regard to mechanical strength and/or elongation, the distributions of orientation of the fibres being chosen so as to promote the uniformity at all points of the width of the non-woven textile of a variable (MD/CD) representative of the mechanical strength or of the elongation of the non-woven textile.
A cancer chemotherapeutic agent comprising Bis(3-[4-({[3-({4-[(2 cyanoethyl)(methyl) amino]benzylidene}amino)propyl]imino}methyl)(methyl)anilino]pro panenitrile) compound of Formula (II) for use in the treatment of cancer.
Mobile offshore apparatus , in particular, a watercraft , for landing at a further offshore apparatus comprising: - at least one hull device , - at least two hydrofoil devices connected to the hull device , wherein each hydrofoil device comprises: - at least one base body with at least one connection unit , which is configured to connect the hydrofoil device to the mobile offshore apparatus , - at least one hydrofoil arranged on the base body , - at least one flow generator arranged on the base body , which is configured to generate a surround flow of the hydrofoil , - wherein the hydrofoil device , in its intended use, is rotatable about at least one substantially vertical axis of rotation as a function of at least one providable control data set , and - at least one control unit which is configured to provide the at least one control data set , characterized in that - at least one guide plate is connected to the hull device , such that the guide plate is arranged between the at least two hydrofoil devices , - wherein the guide plate is movable at least in a vertical direction.. - at least one hull device , - at least two hydrofoil devices connected to the hull device , wherein each hydrofoil device comprises: - at least one base body with at least one connection unit , which is configured to connect the hydrofoil device to the mobile offshore apparatus , - at least one hydrofoil arranged on the base body , - at least one flow generator arranged on the base body , which is configured to generate a surround flow of the hydrofoil , - wherein the hydrofoil device , in its intended use, is rotatable about at least one substantially vertical axis of rotation as a function of at least one providable control data set , and - at least one base body with at least one connection unit , which is configured to connect the hydrofoil device to the mobile offshore apparatus , - at least one hydrofoil arranged on the base body , - at least one flow generator arranged on the base body , which is configured to generate a surround flow of the hydrofoil , - wherein the hydrofoil device , in its intended use, is rotatable about at least one substantially vertical axis of rotation as a function of at least one providable control data set , and - at least one control unit which is configured to provide the at least one control data set , - at least one guide plate is connected to the hull device , such that the guide plate is arranged between the at least two hydrofoil devices , - wherein the guide plate is movable at least in a vertical direction..