mhurhangee/ep-ind-claims huggingface dataset:
A method for encapsulating a component in a housing assembly, comprising: providing a housing assembly (10 1) that includes a housing with an opening and a printed circuit board, PCB, disposed in the housing, wherein the PCB includes at least one component positioned with respect to the PCB and wherein the PCB has a surface, the at least one component extending a distance away from the surface; installing a cap onto the PCB and over the component wherein the cap includes an interior defined by a wall, the component being disposed in the interior of the cap; after installing the cap, applying a predetermined vacuum to the housing assembly (10 1); after applying the vacuum, introducing an encapsulant through the opening of the housing so as to fill the housing to a predetermined potting level, wherein a portion of the interior of the cap remains at a pressure level established by the vacuum; releasing the vacuum to subject the housing assembly (10 1) to atmospheric pressure, wherein a pressure differential between atmospheric pressure and the remainder vacuum in the interior of the cap causes encapsulant to flow from the housing into the interior of the cap to encapsulate at least a portion of the component; and curing the encapsulant, wherein the method comprises selecting the predetermined potting level so as to be less than the distance to which the component extends from the surface of the PCB, wherein after releasing the vacuum, a first encapsulant level in the interior of the cap, relative to the PCB surface, is higher than a second encapsulant level outside of the cap. providing a housing assembly (10 1) that includes a housing with an opening and a printed circuit board, PCB, disposed in the housing, wherein the PCB includes at least one component positioned with respect to the PCB and wherein the PCB has a surface, the at least one component extending a distance away from the surface; installing a cap onto the PCB and over the component wherein the cap includes an interior defined by a wall, the component being disposed in the interior of the cap; after installing the cap, applying a predetermined vacuum to the housing assembly (10 1); after applying the vacuum, introducing an encapsulant through the opening of the housing so as to fill the housing to a predetermined potting level, wherein a portion of the interior of the cap remains at a pressure level established by the vacuum; releasing the vacuum to subject the housing assembly (10 1) to atmospheric pressure, wherein a pressure differential between atmospheric pressure and the remainder vacuum in the interior of the cap causes encapsulant to flow from the housing into the interior of the cap to encapsulate at least a portion of the component; and curing the encapsulant, wherein the method comprises selecting the predetermined potting level so as to be less than the distance to which the component extends from the surface of the PCB, wherein after releasing the vacuum, a first encapsulant level in the interior of the cap, relative to the PCB surface, is higher than a second encapsulant level outside of the cap.
A mobile robot comprising: a traveling unit configured to move a main body; a sensing unit configured to detect a surrounding object while the mobile robot travels; a communication module configured to get input or receive information and to output or transmit information; and a controller configured to perform control to search for an object while the mobile robot travels in an area specified according to area information input or received from the communication module, and to perform control to output or transmit identification information and position information of a detected discovered object through the communication module; wherein the controller performs control to search for an object specified according to the object information that is input or received from the communication module; characterized in that: the controller is configured to perform control to compare object information that is newly input or received from the communication module with pre-stored object information and to propose the pre-stored object information through the communication module when the newly input object information is matched with the pre-stored object information. a traveling unit configured to move a main body; a sensing unit configured to detect a surrounding object while the mobile robot travels; a communication module configured to get input or receive information and to output or transmit information; and a controller configured to perform control to search for an object while the mobile robot travels in an area specified according to area information input or received from the communication module, and to perform control to output or transmit identification information and position information of a detected discovered object through the communication module; wherein the controller performs control to search for an object specified according to the object information that is input or received from the communication module;
An electronic vaporizer device body, configured to be used in combination with an electronic vaporizer, wherein the electronic vaporizer device body comprises: a power supply, configured to supply power; an airflow sensor; and a main control circuit, configured to activate the airflow sensor after detecting first level information, wherein the first level information is generated when the electronic vaporizer device body being in combination with the electronic vaporizer, characterized in that, the electronic vaporizer device body further comprising: an acceleration sensor, electrically connected to the main control circuit, wherein the main control circuit is further configured to activate the acceleration sensor after detecting the first level information. a power supply, configured to supply power; an airflow sensor; and a main control circuit, configured to activate the airflow sensor after detecting first level information, wherein the first level information is generated when the electronic vaporizer device body being in combination with the electronic vaporizer, characterized in that, the electronic vaporizer device body further comprising: an acceleration sensor, electrically connected to the main control circuit, wherein the main control circuit is further configured to activate the acceleration sensor after detecting the first level information.
Control device for a brake system of a vehicle with at least one brake circuit (12a, 12b) comprising a fluid reservoir (16a, 16b), comprising: an electronic unit, which is designed and/or programmed to switch a high-pressure switching valve (18a, 18b) of the brake circuit (12a, 12b) into an at least partially open state for a predetermined or fixed opening time such that, during the opening time, brake fluid is transferable from the fluid reservoir (16a, 16b) via the at least partially open high-pressure switching valve (18a, 18b) into a master brake cylinder of the brake system with the brake circuit (12a, 12b) connected thereto; characterized in that the electronic unit is additionally designed and/or programmed to direct a switch-over valve (20a, 20b) of the brake circuit (12a, 12b), the single wheel outlet valve of the brake circuit and/or all of the wheel outlet valves (22a, 22b, 24a, 24b) of the brake circuit (12a, 12b) during the entire opening time into a state in which a brake fluid transfer from the fluid reservoir (16a, 16b) is blocked by the respective valve (20a, 20b, 22a, 22b, 24a, 24b) and/or to keep said valves in said state. an electronic unit, which is designed and/or programmed to switch a high-pressure switching valve (18a, 18b) of the brake circuit (12a, 12b) into an at least partially open state for a predetermined or fixed opening time such that, during the opening time, brake fluid is transferable from the fluid reservoir (16a, 16b) via the at least partially open high-pressure switching valve (18a, 18b) into a master brake cylinder of the brake system with the brake circuit (12a, 12b) connected thereto; characterized in that the electronic unit is additionally designed and/or programmed to direct a switch-over valve (20a, 20b) of the brake circuit (12a, 12b), the single wheel outlet valve of the brake circuit and/or all of the wheel outlet valves (22a, 22b, 24a, 24b) of the brake circuit (12a, 12b) during the entire opening time into a state in which a brake fluid transfer from the fluid reservoir (16a, 16b) is blocked by the respective valve (20a, 20b, 22a, 22b, 24a, 24b) and/or to keep said valves in said state.
A polyamide film which is a stretched film comprising a polyamide resin composition containing 1 to 10% by mass of a polyester thermoplastic elastomer, wherein the polyamide film satisfies all of the following conditions to: elastic moduli in MD and TD of the film are each 1.0 to 2.3 GPa, when elastic modulus is determined by the method indicated in the description; a ratio between the elastic moduli in MD and TD of the film (MD/TD) is 0.9 to 1.5; and a haze of the film is 7% or less, when haze is determined in accordance with ASTM D1003-61, as indicated in the description. elastic moduli in MD and TD of the film are each 1.0 to 2.3 GPa, when elastic modulus is determined by the method indicated in the description; a ratio between the elastic moduli in MD and TD of the film (MD/TD) is 0.9 to 1.5; and a haze of the film is 7% or less, when haze is determined in accordance with ASTM D1003-61, as indicated in the description.
Method for monitoring the quality of a process for the manufacture of a ring component for a push belt for a continuously variable transmission by measuring a thickness of a nitrided surface layer of the ring component, which push belt is composed of a multitude of relatively thin transverse metal elements that are slideably incorporated on one or more laminated endless tensile means that are each composed of a set of mutually nested flat metal rings, characterised in that a small pit is formed in the ring by evaporating ring material using GDOES-technique, in that a Nitrogen concentration () in the evaporated material is measured in relation to a depth of the pit relative to the external surface of the ring and in that the depth of the pit at the point of inflection of a curve representing the measured relation between the Nitrogen concentration () and the depth of the pit provides the thickness of the nitrided surface layer.
A method for manufacturing an object or part thereof comprising the steps of: a) providing a 3D model of said object or part thereof; b) meshing said 3D model, thereby providing a meshed 3D model of the object comprising three or more tile pieces (2,3) and spacings and/or seams between said tile pieces; and c) manufacturing the object by additive manufacturing based on the meshed 3D model obtained under (b), thereby providing the object or part thereof comprising tile pieces interlinked through spacings and/or seams, whereby the nature or width of the spacings and/or seams is such that their strength is reduced compared to the strength of the tile pieces and wherein the width of said spacings and/or seams is between 0.01 and 1 mm. a) providing a 3D model of said object or part thereof; b) meshing said 3D model, thereby providing a meshed 3D model of the object comprising three or more tile pieces (2,3) and spacings and/or seams between said tile pieces; and c) manufacturing the object by additive manufacturing based on the meshed 3D model obtained under (b), thereby providing the object or part thereof comprising tile pieces interlinked through spacings and/or seams, whereby the nature or width of the spacings and/or seams is such that their strength is reduced compared to the strength of the tile pieces and wherein the width of said spacings and/or seams is between 0.01 and 1 mm.
A multiple-firing crimp device, comprising: a plurality of clips each having an internal hollow; a hollow shaft (70; 270; 570) having: a distal crimping location, an exterior surface, and an interior in which is stacked the plurality of clips to define a first clip which is a distal-most one of the plurality of clips, the clips moving therein along a longitudinal axis, wherein the hollow shaft (70; 270; 570) defines a lateral opening proximal to the crimping location and communicating between the interior and the environment outside the exterior surface; a crimping assembly (10, 20, 40) having a crimp control device configured to crimp the first clip within the distal crimping location when actuated; a clip movement assembly arranged within the interior of the shaft (70; 270; 570) and configured to deliver the first clip to the distal crimping location by moving the first clip longitudinally from a first proximal position into the distal crimping location and returning to a second proximal position without the first clip; and a snare (10; 210) configured to pull at least one cord from distal of the first clip through the first clip and through a portion of the shaft (70; 270; 570) and out the side of the shaft (70; 270; 570) through the lateral opening. a plurality of clips each having an internal hollow; a hollow shaft (70; 270; 570) having: a distal crimping location, an exterior surface, and an interior in which is stacked the plurality of clips to define a first clip which is a distal-most one of the plurality of clips, the clips moving therein along a longitudinal axis, wherein the hollow shaft (70; 270; 570) defines a lateral opening proximal to the crimping location and communicating between the interior and the environment outside the exterior surface; a distal crimping location, an exterior surface, and an interior in which is stacked the plurality of clips to define a first clip which is a distal-most one of the plurality of clips, the clips moving therein along a longitudinal axis, wherein the hollow shaft (70; 270; 570) defines a lateral opening proximal to the crimping location and communicating between the interior and the environment outside the exterior surface; a crimping assembly (10, 20, 40) having a crimp control device configured to crimp the first clip within the distal crimping location when actuated; a clip movement assembly arranged within the interior of the shaft (70; 270; 570) and configured to deliver the first clip to the distal crimping location by moving the first clip longitudinally from a first proximal position into the distal crimping location and returning to a second proximal position without the first clip; and a snare (10; 210) configured to pull at least one cord from distal of the first clip through the first clip and through a portion of the shaft (70; 270; 570) and out the side of the shaft (70; 270; 570) through the lateral opening.
Filter centrifuge for filtering a solid material out of a suspension formed by the solid material and a liquid, including a filter drum which defines a filter drum inner surface and a filter drum longitudinal axis disposed at an angle of no more than 30° to the horizontal and rotatable about the filter drum longitudinal axis; and a solid material discharge device for discharging the filtered-out solid material from the filter drum in the context of a discharge operation of the filter centrifuge, the solid material discharge device comprising a discharge device arm having a free arm end and a solid material discharge line, which is formed on the arm and through which the filtered-out solid material can be led out of the filter drum and which has a solid material inlet opening which is arranged adjacent to the free arm end and through which the filtered-out solid material can get from the filter drum into the solid material discharge line, wherein the discharge device arm is configured to be controllably movable so that in discharge operation the solid material inlet opening is movable by means of a movement of the discharge device arm near the filter drum inner surface to be able to receive the solid material adhering to the inner surface of the filter drum, and wherein, in discharge operation, the solid material inlet opening moved near the filter drum inner surface is disposed in the lower half of the filter drum with respect to the filter drum longitudinal axis, wherein the solid material discharge device further comprises a first blade defining a first cutting edge and disposed adjacent to the solid material inlet opening, wherein the solid material inlet opening extends in the direction of the filter drum longitudinal axis over less than half of the entire length of the inner surface of the filter drum, and wherein the discharge device arm is further configured to be controllably movable in translation so that, in discharge operation, the solid material inlet opening is movable by means of a translation movement of the discharge device arm in the direction parallel to the filter drum longitudinal axis, in order to displace the solid material inlet opening parallel to the filter drum longitudinal axis.
A road surface condition detection device comprising: a radio waves receiving unit configured to receive horizontally polarized waves and vertically polarized waves of radio waves radiated from a road surface at at least two different radiation angles; an image generation unit configured to generate a horizontally polarized waves image and a vertically polarized waves image based on the horizontally polarized waves and the vertically polarized waves, respectively, received by the radio waves receiving unit; a polarization ratio calculation unit configured to calculate, for each radiation angle, a polarization ratio which is a ratio of intensity of the horizontally polarized waves to the vertically polarized waves based on the horizontally polarized waves image and the vertically polarized waves image generated by the image generation unit; a refractive index calculation unit configured to calculate a refractive index of the road surface according to a change between polarization ratios of two different radiation angles calculated by the polarization ratio calculation unit; and a road surface condition recognition unit configured to recognize a condition of a road surface based on the refractive index calculated by the refractive index calculation unit. a radio waves receiving unit configured to receive horizontally polarized waves and vertically polarized waves of radio waves radiated from a road surface at at least two different radiation angles; an image generation unit configured to generate a horizontally polarized waves image and a vertically polarized waves image based on the horizontally polarized waves and the vertically polarized waves, respectively, received by the radio waves receiving unit; a polarization ratio calculation unit configured to calculate, for each radiation angle, a polarization ratio which is a ratio of intensity of the horizontally polarized waves to the vertically polarized waves based on the horizontally polarized waves image and the vertically polarized waves image generated by the image generation unit; a refractive index calculation unit configured to calculate a refractive index of the road surface according to a change between polarization ratios of two different radiation angles calculated by the polarization ratio calculation unit; and a road surface condition recognition unit configured to recognize a condition of a road surface based on the refractive index calculated by the refractive index calculation unit.
A Multi-User Multi-Input Multi-Output, MU-MIMO, system, comprising a Node B and User Equipments, UEs, which communicate with each other through a wireless network, which is characterized in that, the UE feeds back a Channel Quality Indicator, CQI, corresponding to a a first Rank acquired according to a previously scheduled first Rank and a correspondence between CQIs corresponding to different ranks to the Node B, wherein the previous scheduled first Rank is the number of data streams stored in a register; and the Node B acquires CQIs corresponding to all Ranks of the UE according to the CQI corresponding to the first Rank fed back from the UE and a correspondence between CQIs corresponding to different ranks, and performs scheduling according to the CQIs corresponding to all Ranks of all the UEs (24, 25). the UE feeds back a Channel Quality Indicator, CQI, corresponding to a a first Rank acquired according to a previously scheduled first Rank and a correspondence between CQIs corresponding to different ranks to the Node B, wherein the previous scheduled first Rank is the number of data streams stored in a register; and the Node B acquires CQIs corresponding to all Ranks of the UE according to the CQI corresponding to the first Rank fed back from the UE and a correspondence between CQIs corresponding to different ranks, and performs scheduling according to the CQIs corresponding to all Ranks of all the UEs (24, 25).
A method for closing an aperture on a blade of a gas turbine, wherein the blade of the gas turbine comprises a tip end with a top surface and a bottom surface, the aperture is formed on the tip end of the blade, and the aperture comprise a peripheral edge, the method comprise a step of closing the aperture with a weld formed by means of a Tungsten Inert Gas welding process without an insert placed in the aperture; the method being characterized in that the TIG welding process is carried out along a peripheral edge of the aperture; the TIG welding process beginning from the peripheral edge of the aperture, and proceeding in a spiral manner toward the centre of the aperture, where the TIG welding process is finished and the aperture is closed by the weld.
An apparatus for slicing food products, in particular a high-performance slicer, comprising a product feed which feeds one or more products to be sliced along a product conveying direction to a cutting plane in which at least one cutting blade moves, in particular in a rotating and/or revolving manner, wherein the product feed comprises at least one end element which has a product-conducting support surface and/or contact surface for a front product end region and is replaceably fixed to a carrier; characterized in that a clamping device and/or tensioning device which has precisely one fixing member is provided for fixing the end element to the carrier; and in that the fixing of the end element to the carrier takes place without screws.