mhurhangee/ep-ind-claims huggingface dataset:
A waterproof box (11, 14, 15, 16) comprising: a box main body having a peripheral wall and receiving components which do not like water inside of the peripheral wall, a cover having a cover peripheral wall and covering an opening of the edges of the peripheral wall of the box main body; a main body side waterproof structure arranged in the peripheral wall of the box main body; and a cover side waterproof structure arranged in the cover peripheral wall of the cover, wherein the main body side waterproof structure is overlapped with the cover side waterproof structure so as to waterproof, and opposed surfaces by overlapping are a main body side matching surface and a cover side matching surface, respectively, wherein the main body side matching surface and the cover side matching surface are formed as at least a pair of tapered surfaces (30b, 33g; 32b, 35f; 56a, 57a) which are abutted and fit when the cover is moved in a direction removing the box main body; and wherein the cover has a chamfered portion continuing to its lower surface and tapered surface. a box main body having a peripheral wall and receiving components which do not like water inside of the peripheral wall, a cover having a cover peripheral wall and covering an opening of the edges of the peripheral wall of the box main body; a main body side waterproof structure arranged in the peripheral wall of the box main body; and a cover side waterproof structure arranged in the cover peripheral wall of the cover, wherein the main body side waterproof structure is overlapped with the cover side waterproof structure so as to waterproof, and opposed surfaces by overlapping are a main body side matching surface and a cover side matching surface, respectively, wherein the main body side matching surface and the cover side matching surface are formed as at least a pair of tapered surfaces (30b, 33g; 32b, 35f; 56a, 57a) which are abutted and fit when the cover is moved in a direction removing the box main body; and wherein the cover has a chamfered portion continuing to its lower surface and tapered surface.
A method, comprising: manufacturing a housing for an impeller of a blood pump by: placing an inner lining around a mandrel; placing, around the inner lining, a cylindrical portion of a frame, the cylindrical portion of the frame including struts that define a generally cylindrical shape; placing a distal portion of an elongate tube around at least a portion of the frame, the elongate tube including a proximal portion that defines at least one blood outlet opening; while the distal portion of the elongate tube is disposed around at least the portion of the frame, heating the inner lining, the frame and the distal portion of the elongate tube via the mandrel; and while heating the inner lining, the frame and the distal portion of the elongate tube, applying pressure from outside the distal portion of the elongate tube, such as to cause the distal portion of the elongate tube to conform with a structure of the struts of the frame, and such as to cause the inner lining and the distal portion of the elongate tube to become coupled to the frame. placing an inner lining around a mandrel; placing, around the inner lining, a cylindrical portion of a frame, the cylindrical portion of the frame including struts that define a generally cylindrical shape; placing a distal portion of an elongate tube around at least a portion of the frame, the elongate tube including a proximal portion that defines at least one blood outlet opening; while the distal portion of the elongate tube is disposed around at least the portion of the frame, heating the inner lining, the frame and the distal portion of the elongate tube via the mandrel; and while heating the inner lining, the frame and the distal portion of the elongate tube, applying pressure from outside the distal portion of the elongate tube, such as to cause the distal portion of the elongate tube to conform with a structure of the struts of the frame, and such as to cause the inner lining and the distal portion of the elongate tube to become coupled to the frame.
A stent (1, 10, 20, 30, 40, 50) suitable for deployment in a blood vessel, wherein the stent is expandable from a delivery configuration to a deployment configuration, wherein upon application of a load to the stent when the stent is in the deployment configuration the stent is movable from an unloaded configuration to a loaded configuration, and wherein in the loaded configuration at least part of the longitudinal axis of the stent is curved in three-dimensional space, characterised in that in the unloaded configuration said part of the longitudinal axis of the stent is substantially straight or is curved in a two-dimensional plane, the stent being biased to achieve the three-dimensional curvature during loading.
An apparatus for processing blood, said apparatus comprising: an inlet interface for coupling with a patient to receive blood directly from the circulation of said patient; a leukapheresis module coupled to said inlet interface for collecting bulk mononuclear blood cells from said received blood; an enrichment module coupled to said leukapheresis module for enriching concurrently target cells separated from non-target cells in said bulk mononuclear blood cells; a target-cell modification module adapted to provide modification selected from the group consisting of cytotoxic T lymphocyte activation; T regulatory cell (Treg) activation and genetically modified blood cells protected from human immunodeficiency virus coupled to at least one of said leukapheresis module and said enrichment module, said modification module modifying said enriched target cells; an outlet interface coupled to at least one of said leukapheresis module and said enrichment module for coupling with said patient to return enriched target cells to the circulation of said patient, said apparatus and said patient forming a closed loop when coupled together; and a controller for automated control of operation of said inlet and outlet interfaces, said leukapheresis module, and said enrichment module. an inlet interface for coupling with a patient to receive blood directly from the circulation of said patient; a leukapheresis module coupled to said inlet interface for collecting bulk mononuclear blood cells from said received blood; an enrichment module coupled to said leukapheresis module for enriching concurrently target cells separated from non-target cells in said bulk mononuclear blood cells; a target-cell modification module adapted to provide modification selected from the group consisting of cytotoxic T lymphocyte activation; T regulatory cell (Treg) activation and genetically modified blood cells protected from human immunodeficiency virus coupled to at least one of said leukapheresis module and said enrichment module, said modification module modifying said enriched target cells; an outlet interface coupled to at least one of said leukapheresis module and said enrichment module for coupling with said patient to return enriched target cells to the circulation of said patient, said apparatus and said patient forming a closed loop when coupled together; and a controller for automated control of operation of said inlet and outlet interfaces, said leukapheresis module, and said enrichment module.
An electrotherapeutic implant for stimulating bodily tissue, comprising - at least two electrode poles, which are connected to electrical leads, - a demodulation unit, - at least one electrical lead, which is designed as an antenna and contacts the demodulation unit, wherein - the implant is produced from a piece having a closed exterior shape, and - comprises a control unit, which is designed to control the therapy sequence, - comprises means for the fixation thereof at the therapy site and is equipped with biocompatible insulation, wherein - the components of the implant are designed such that therapy energy that can be coupled in from the outside via the antenna during treatment is delivered, without intermediate storage, to the therapeutic target area via the electrode pole, characterized in that the implant: - comprises a release device, which is designed to permit therapy energy to be delivered via the electrode pole once a release code is received, and - comprises a second antenna, which is designed to receive a release code, which is required in order to release the electrode pole, and/or control signals, wherein the resonant frequency of the antenna for the release code signal differs from the resonant frequency of the antenna for the therapy energy that is received. - at least two electrode poles, which are connected to electrical leads, - a demodulation unit, - at least one electrical lead, which is designed as an antenna and contacts the demodulation unit, wherein - the implant is produced from a piece having a closed exterior shape, and - comprises a control unit, which is designed to control the therapy sequence, - comprises means for the fixation thereof at the therapy site and is equipped with biocompatible insulation, wherein - the components of the implant are designed such that therapy energy that can be coupled in from the outside via the antenna during treatment is delivered, without intermediate storage, to the therapeutic target area via the electrode pole, characterized in that the implant: - comprises a release device, which is designed to permit therapy energy to be delivered via the electrode pole once a release code is received, and - comprises a second antenna, which is designed to receive a release code, which is required in order to release the electrode pole, and/or control signals, wherein the resonant frequency of the antenna for the release code signal differs from the resonant frequency of the antenna for the therapy energy that is received.
A minerals processing plant (200, 300) for recovering metal values from ore, the minerals processing plant (200, 300) comprising a flotation circuit and a dry grinding circuit preceding the flotation circuit, wherein the dry grinding circuit comprises a vertical roller mill or roller grinder, and a plurality of dry air particle separation devices (201, 304, 307) between said vertical roller mill or roller grinder and the flotation circuit; the dry air particle separation devices (201, 304, 307) being configured to provide a dry fines stream, and a dry coarse stream, wherein the coarse stream is provided to the flotation circuit to recover said metal values, wherein the dry fines stream is combined with dewatered tailings derived from material (110, 111) leaving said flotation circuit, wherein the dry fines stream is combined with the dewatered tailings in a mixer, wherein the mixer is provided upstream of stacking equipment and/or a tailings pond, characterized in that a thickener is provided between the mixer and the flotation circuit, the thickener being configured to dewater the material (110, 111) leaving said flotation circuit and provide the dewatered tailings to the mixer, and wherein a filter is provided between the mixer and the thickener, the filter being configured to further dewater material leaving said thickener. wherein the coarse stream is provided to the flotation circuit to recover said metal values, wherein the dry fines stream is combined with dewatered tailings derived from material (110, 111) leaving said flotation circuit, wherein the dry fines stream is combined with the dewatered tailings in a mixer, wherein the mixer is provided upstream of stacking equipment and/or a tailings pond, characterized in that a thickener is provided between the mixer and the flotation circuit, the thickener being configured to dewater the material (110, 111) leaving said flotation circuit and provide the dewatered tailings to the mixer, and wherein a filter is provided between the mixer and the thickener, the filter being configured to further dewater material leaving said thickener.
A recombiner comprising a recombination device for the catalytic recombination of hydrogen and oxygen generated in accumulators to water, wherein the recombiner comprises a tank, characterized by a shielding element arranged above the recombination device, which shielding element is located between the recombination device and the tank wall which is placed above this one in the direction of height, such that water which develops on the tank wall will be intercepted by the shielding element.
A display apparatus (4,5) comprising: a display panel; a touch sensor layer disposed on the display panel; a window layer disposed on the touch sensor layer, the window layer having a first refractive index and comprising a first surface and a second surface opposite the first surface, the first surface being further away from the substrate than the second surface, the display being characterized in that the first surface is convex in a direction from the first surface towards the second surface and has a dome shape, whereby in a cross-sectional view of the stacked layers the outer surface of the window layer has a curved shape, whereby the thickness of the window layer increases from a boundary portions of the window layer to a center portion of the window layer; and the window layer comprises one layer or a multi-layer structure with several sub-window layers stacked on each other which together form the window layer, wherein the second surface of the window layer or of a sub-window layer of the window layer is convex in a direction from the first surface towards the second surface or in a direction from the second surface towards the first surface; and an insulation layer disposed between the window layer and the touch sensor layer or between the touch layer and one of the sub-window layers of the window layer, the insulation layer having a second refractive index that is greater than the first refractive index. a display panel; a touch sensor layer disposed on the display panel; a window layer disposed on the touch sensor layer, the window layer having a first refractive index and comprising a first surface and a second surface opposite the first surface, the first surface being further away from the substrate than the second surface, the display being characterized in that the first surface is convex in a direction from the first surface towards the second surface and has a dome shape, whereby in a cross-sectional view of the stacked layers the outer surface of the window layer has a curved shape, whereby the thickness of the window layer increases from a boundary portions of the window layer to a center portion of the window layer; and the window layer comprises one layer or a multi-layer structure with several sub-window layers stacked on each other which together form the window layer, wherein the second surface of the window layer or of a sub-window layer of the window layer is convex in a direction from the first surface towards the second surface or in a direction from the second surface towards the first surface; and an insulation layer disposed between the window layer and the touch sensor layer or between the touch layer and one of the sub-window layers of the window layer, the insulation layer having a second refractive index that is greater than the first refractive index.
A medical probe for examining a body cavity during surgery, the medical probe comprising: a hollow needle body defining a needle passage extending along an axis of said hollow needle body, and including an outer tubular wall surrounding said needle passage, said outer tubular wall including a penetrating section that is formed with a forward penetrating end and that has a cross-section smaller than a remainder of said outer tubular wall, and a needle opening formed in said penetrating section and communicated with said needle passage; a light-transmitting optical module disposed inside said needle passage, and including a light entering region that extends to and is exposed from said needle opening to receive light from the body cavity, said light-transmitting optical module transmitting the light within said needle passage; and an imaging module disposed in said needle passage to capture an image carried by the light transmitted through said light-transmitting optical module; and being characterized by a microelectro-mechanical module, which includes a support body disposed inside said needle passage, and a microelectro-mechanical component disposed in said support body proximally of said needle opening to detect physiological characteristics of the body cavity. a hollow needle body defining a needle passage extending along an axis of said hollow needle body, and including an outer tubular wall surrounding said needle passage, said outer tubular wall including a penetrating section that is formed with a forward penetrating end and that has a cross-section smaller than a remainder of said outer tubular wall, and a needle opening formed in said penetrating section and communicated with said needle passage; a light-transmitting optical module disposed inside said needle passage, and including a light entering region that extends to and is exposed from said needle opening to receive light from the body cavity, said light-transmitting optical module transmitting the light within said needle passage; and an imaging module disposed in said needle passage to capture an image carried by the light transmitted through said light-transmitting optical module; and being characterized by a microelectro-mechanical module, which includes a support body disposed inside said needle passage, and a microelectro-mechanical component disposed in said support body proximally of said needle opening to detect physiological characteristics of the body cavity.
An image projection apparatus comprising: - a projector configured to project an image; and - a projection control apparatus configured to cause the projector to project, on a surface of a target to be manufactured, a processing information regarding a processing or an assembly information regarding an assembly performed for the target, characterized in that said processing information or assembly information includes a processing information indicating a position at which a perforation guide sheet is to be disposed, wherein the projection control apparatus is configured to cause said information indicating a position at which the perforation guide sheet is to be disposed to be projected, the perforation guide sheet being a physical guide sheet and provided in advance with a hole indicating a position of a perforating operation, said information allowing for an accurate disposition of the perforation guide sheet on the surface of the target and for a performance of a perforation at a predetermined position on the target via the hole of the perforation guide sheet. - a projector configured to project an image; and - a projection control apparatus configured to cause the projector to project, on a surface of a target to be manufactured, a processing information regarding a processing or an assembly information regarding an assembly performed for the target, said processing information or assembly information includes a processing information indicating a position at which a perforation guide sheet is to be disposed, wherein the projection control apparatus is configured to cause said information indicating a position at which the perforation guide sheet is to be disposed to be projected, the perforation guide sheet being a physical guide sheet and provided in advance with a hole indicating a position of a perforating operation, said information allowing for an accurate disposition of the perforation guide sheet on the surface of the target and for a performance of a perforation at a predetermined position on the target via the hole of the perforation guide sheet.
Method for producing a plastic component having a structured surface, in which the component is produced from plastic by injection moulding, a chromium coating is subsequently electroplated and a structure is introduced onto the visible surface of the component having the chromium coating, wherein the structure is introduced into the component according to specifications of a data set by means of a combusting and displacing laser, characterised in that the data set is obtained by recording a structure or brushing of the surface of a reference component made of metal by means of optical scanning and that the data set is processed, wherein during processing of the data set the extreme values of the scanned surface of the reference component are masked out, wherein by means of the structure an exact replica of the reference surface of the reference component made of metal in the surface of the component is achieved.
Axially split inner ring for a turbomachine, the inner ring being designed to be connected to guide vanes, comprising at least a first ring segment arranged upstream and a second ring segment arranged downstream, the second ring segment having a first sealing segment, and at least one portion of the second ring segment being arranged radially inwards relative to the first ring segment, characterized in that portions of the second ring segment and portions of the first sealing segment extend upstream over the axial width of the first ring segment.
A method for manufacturing a brush head the method comprising the steps of: molding one or more tuft carriers, having at least one retention element, each retention element having an opening therethrough; positioning the retention elements of the tuft carriers in openings of a handling plate; loading the plurality of retention elements into corresponding recesses of a base plate; inserting a bristle tuft into the opening of each retention element; bonding a proximal end of each bristle tuft together with at least a portion of a proximal side of each corresponding retention element to form a merged proximal end head portion that secures the bristle tufts and retention elements together as a merged tuft assemblies; positioning a platen portion of a neck in relation to the merged tuft assemblies using a cavity in the base plate; and overmolding a matrix material in a portion of the cavity in the base plate to at least partially encompass the platen and the plurality of merged tuft assemblies. molding one or more tuft carriers, having at least one retention element, each retention element having an opening therethrough; positioning the retention elements of the tuft carriers in openings of a handling plate; loading the plurality of retention elements into corresponding recesses of a base plate; inserting a bristle tuft into the opening of each retention element; bonding a proximal end of each bristle tuft together with at least a portion of a proximal side of each corresponding retention element to form a merged proximal end head portion that secures the bristle tufts and retention elements together as a merged tuft assemblies; positioning a platen portion of a neck in relation to the merged tuft assemblies using a cavity in the base plate; and overmolding a matrix material in a portion of the cavity in the base plate to at least partially encompass the platen and the plurality of merged tuft assemblies.