mhurhangee/ep-ind-claims huggingface dataset:
A sensor for determining an output value, in particular an inductive proximity sensor, wherein the sensor has: - a detection unit configured to detect a sensor signal (102, 204); - a preprocessing unit configured to determine an intermediate signal on the basis of the sensor signal (102, 204) and of a predefined reference signal; and - an evaluation unit which is trained in accordance with a machine learning method and which is configured to determine the output value on the basis of the intermediate signal, wherein the predefined reference signal is a sensor signal of the sensor and/or a sensor signal of a reference sensor. - a detection unit configured to detect a sensor signal (102, 204); - a preprocessing unit configured to determine an intermediate signal on the basis of the sensor signal (102, 204) and of a predefined reference signal; and - an evaluation unit which is trained in accordance with a machine learning method and which is configured to determine the output value on the basis of the intermediate signal,
A pneumatic tire in which air turbulent-flow generating projections each extending from an inner circumference side to an outer circumference side are provided on a tire surface at intervals in a tire circumferential direction, wherein: each of the air turbulent-flow generating projections includes an edge portion when being viewed in a cross-sectional shape taken along a direction perpendicular to an extending direction thereof; and a front wall angle (θ1) formed between a front wall face of each air turbulent-flow generating projection and the tire surface is set in the range of 70° to 110°, the front wall face being hit by an airflow; and the air turbulent-flow generating projections are provided on a side portion of the tire; and characterized in that a relationship of 4.0 ≤ (p-w)/w ≤ 39.0 is satisfied where: p denotes a pitch of adjacent ones of the air turbulent-flow generating projections in a tire rotation direction; and w denotes a lower side width of each of the air turbulent-flow generating projections in the cross-sectional shape. each of the air turbulent-flow generating projections includes an edge portion when being viewed in a cross-sectional shape taken along a direction perpendicular to an extending direction thereof; and a front wall angle (θ1) formed between a front wall face of each air turbulent-flow generating projection and the tire surface is set in the range of 70° to 110°, the front wall face being hit by an airflow; and the air turbulent-flow generating projections are provided on a side portion of the tire; and characterized in that a relationship of 4.0 ≤ (p-w)/w ≤ 39.0 is satisfied where: p denotes a pitch of adjacent ones of the air turbulent-flow generating projections in a tire rotation direction; and w denotes a lower side width of each of the air turbulent-flow generating projections in the cross-sectional shape.
A cushion cut diamond having a symmetrical rounded shaped geometry with four curvilinear long sides (10, 12, 14, 16) interconnected to one another by four curvilinear corner sides (18, 20, 22, 24) of equal radius with the diamond possessing a hearts and arrows pattern characteristic of the true hearts and arrows pattern in a round cut diamond when subjected to light comprising: a substantially square shaped table facet with four cut corners, 4 main crown facets (MCF5, MCF6, MCF7, MCF8) of substantially equal geometry and dimension on the four long sides (10, 12, 14, 16) of the diamond, 4 main crown facets (MCF1, MCF2, MCF3, MCF4) of substantially equal geometry and dimension on the four corner sides (18, 20, 22, 24) of the diamond with the area of the 4 main crown facets on the long sides being substantially greater than the area of the 4 main crown facets (α1-α8) on the corner sides, 8 crown star facets on the main crown sides adjacent the substantially square shaped sides of the table facet, 16 crown half facets (β1-β16), 8 main pavilion facets (MPF1-MPF8), 16 pavilion half facets (PHF1-PHF16), 4 subsidiary pavilion facets and multiple girdle facets on both the long and corner sides of the diamond, the cushion cut diamond being characterized in that it has a pavilion with 16 subsidiary pavilion half facets.
A collapsible heart valve prosthesis including an armature and a set of prosthetic valve leaflets (3a, 3b, 3c) supported by the armature, the armature expandable from a contracted condition to an expanded condition for anchoring at an annulus of a natural valve site, wherein the armature includes: - a tubular intra-annular portion defining a blood flow lumen having an inflow side and an outflow side, the tubular intra-annular portion supporting (202, 204, 206) the set of prosthetic valve leaflets (3a, 3b, 3c) in the blood flow lumen and being provided with outward formations for coupling with the natural valve site, and - at least one extra-annular portion (2b, 2c) linked to the intra-annular portion, the at least one extra-annular portion including an over-annular portion to extend collar-like over the annulus of the natural valve site at the inflow side of the blood flow lumen, wherein the at least one extra-annular portion (2b, 2c) includes a pattern of radial finger formations, the prosthesis being characterized in that the radial finger formations exhibit differential flexibility by being stiffer at their proximal ends and more flexible at their distal ends. - a tubular intra-annular portion defining a blood flow lumen having an inflow side and an outflow side, the tubular intra-annular portion supporting (202, 204, 206) the set of prosthetic valve leaflets (3a, 3b, 3c) in the blood flow lumen and being provided with outward formations for coupling with the natural valve site, and - at least one extra-annular portion (2b, 2c) linked to the intra-annular portion, the at least one extra-annular portion including an over-annular portion to extend collar-like over the annulus of the natural valve site at the inflow side of the blood flow lumen,
An information transmission method, comprising: receiving, by a positioning center, a location service request message from a core network device, wherein the location service request message comprises coverage indication information, wherein the coverage indication information indicates that a user equipment, UE, is at a coverage enhancement level; determining, by the positioning center according to the coverage indication information, positioning measurement configuration information; and sending, by the positioning center, the positioning measurement configuration information to the UE, wherein the positioning measurement configuration information configures the UE to perform positioning measurement. receiving, by a positioning center, a location service request message from a core network device, wherein the location service request message comprises coverage indication information, wherein the coverage indication information indicates that a user equipment, UE, is at a coverage enhancement level; determining, by the positioning center according to the coverage indication information, positioning measurement configuration information; and sending, by the positioning center, the positioning measurement configuration information to the UE, wherein the positioning measurement configuration information configures the UE to perform positioning measurement.
A nuclear detector, comprising a scintillation crystal array including a plurality of scintillation crystal bars of the same size arranged closely in sequence, a light guide, and a photodetector array including a plurality of silicon photomultipliers (SiPMs) arranged in sequence, wherein each of the SiPMs has a cross-sectional area greater than a cross-sectional area of each of the scintillation crystal bars, wherein the light guide includes a top surface coupled to the scintillation crystal array, an opposed bottom surface coupled to a top surface of the photodetector array and a side surface; the light guide has a thickness in a range of 0.1mm to 40mm; the light guide further includes a slit (22, 23, 122) adjacent to an edge of the light guide, and the slit (22, 23, 122) is configured to extend from the top surface of the light guide toward the bottom surface of the light guide and the slit (22, 23, 122) has a depth in a range of 0.1 to 0.5 times the thickness of the light guide; the light guide has a shape of cuboid; the slit (22, 23, 122) has an extending direction perpendicular to the top surface and the bottom surface of the light guide; characterized in that the top surface of the photodetector array has an area less than an area of the bottom surface of the light guide such that the photodetector array is recessed at the edges thereof with respect to the light guide and the scintillation crystal array. the light guide has a thickness in a range of 0.1mm to 40mm; the light guide further includes a slit (22, 23, 122) adjacent to an edge of the light guide, and the slit (22, 23, 122) is configured to extend from the top surface of the light guide toward the bottom surface of the light guide and the slit (22, 23, 122) has a depth in a range of 0.1 to 0.5 times the thickness of the light guide; the light guide has a shape of cuboid; the slit (22, 23, 122) has an extending direction perpendicular to the top surface and the bottom surface of the light guide; characterized in that the top surface of the photodetector array has an area less than an area of the bottom surface of the light guide such that the photodetector array is recessed at the edges thereof with respect to the light guide and the scintillation crystal array.
A cylindrically rolled energy absorber for use with fall protection equipment to absorb the energy of a user's fall from a worksite; the energy absorber comprising: a strip of bi-layered webbing defining two parallel rolls of webbing (22, 24) centered on a common central axis coaxial with the line connecting the two connector loops (26, 28), the strip having a length extending between opposite ends of the strip (36, 38) and a width extending perpendicular to the length, the width of the strip in each roll extending parallel to the central axis, the strip comprising two layers (42, 44) of webbing joined together over the length of the strip by tear-apart connections, each end of the strip (36, 38) having end portions of each the two layers (42,44) that are separated from each other; a first connector loop extending from one of the two rolls and fixed to a first one of the end portions from one end of the strip and to a second one of the end portions from the other end of the strip; and a second connector loop extending from the other one of the rolls and fixed to a third one of the end portions from the one end of the strip and to a fourth one of the end portions from the other end of the strip. a strip of bi-layered webbing defining two parallel rolls of webbing (22, 24) centered on a common central axis coaxial with the line connecting the two connector loops (26, 28), the strip having a length extending between opposite ends of the strip (36, 38) and a width extending perpendicular to the length, the width of the strip in each roll extending parallel to the central axis, the strip comprising two layers (42, 44) of webbing joined together over the length of the strip by tear-apart connections, each end of the strip (36, 38) having end portions of each the two layers (42,44) that are separated from each other; a first connector loop extending from one of the two rolls and fixed to a first one of the end portions from one end of the strip and to a second one of the end portions from the other end of the strip; and a second connector loop extending from the other one of the rolls and fixed to a third one of the end portions from the one end of the strip and to a fourth one of the end portions from the other end of the strip.
A fuel cell system, comprising: a fuel cell comprising: a fuel electrode; an oxidant electrode; and an electrolyte membrane, the fuel electrode and the oxidant electrode being opposed to each other with the electrolyte membrane interposed therebetween; a fuel supply system configured to supply a fuel gas to the fuel electrode, the fuel gas containing hydrogen; an oxidant supply system configured to supply an oxidant gas to the oxidant electrode, the oxidant gas containing oxygen; a pair of fresh-air control valves (23, 24) which are individually provided for inlet and outlet sides of the fuel cell in the oxidant supply system and is configured to prevent ingress of the oxidant gas into the oxidant electrode; a current extraction device configured to extract current from the fuel cell during a system shutdown process; and a system-shutdown controller configured to integrally control the system shutdown process, wherein, at shutdown of the fuel cell system, the system-shutdown controller is configured to cause the current extraction device to extract current from the fuel cell in a state where the supply of the fuel gas through the fuel supply system is continued and the supply of the oxidant gas through the oxidant supply system is stopped, and the system-shutdown controller is configured to airtightly close the fresh-air control valves (23, 24) after increasing pressure of the fuel gas in the fuel electrode to not less than atmospheric pressure and not less than pressure of the oxidant gas in the a fuel cell comprising: a fuel electrode; an oxidant electrode; and an electrolyte membrane, the fuel electrode and the oxidant electrode being opposed to each other with the electrolyte membrane interposed therebetween; a fuel supply system configured to supply a fuel gas to the fuel electrode, the fuel gas containing hydrogen; an oxidant supply system configured to supply an oxidant gas to the oxidant electrode, the oxidant gas containing oxygen; a pair of fresh-air control valves (23, 24) which are individually provided for inlet and outlet sides of the fuel cell in the oxidant supply system and is configured to prevent ingress of the oxidant gas into the oxidant electrode; a current extraction device configured to extract current from the fuel cell during a system shutdown process; and a system-shutdown controller configured to integrally control the system shutdown process,
A method of separation of a fluid in the liquid state comprising two liquids that are not mutually miscible, with different densities, wherein a first liquid is to be cleansed from a second liquid, said method comprising - conducting the fluid in the liquid state through a rotor where centrifugal separation of the second liquid from the first liquid takes place, and it is then conducted into a tank, whereby the proportion of the second liquid is reduced to less than 5%, characterised in that - after centrifugal separation, the fluid is conducted through a restriction, whereby the pressure of the fluid in the liquid state is reduced, which causes portions of the fluid in the liquid state to evaporate so that further portions of the second liquid escape in the form of a gas which is conducted away, thereby further reducing the proportion of the second liquid in the outgoing fluid in the liquid state. - conducting the fluid in the liquid state through a rotor where centrifugal separation of the second liquid from the first liquid takes place, and it is then conducted into a tank, whereby the proportion of the second liquid is reduced to less than 5%, characterised in that - after centrifugal separation, the fluid is conducted through a restriction, whereby the pressure of the fluid in the liquid state is reduced, which causes portions of the fluid in the liquid state to evaporate so that further portions of the second liquid escape in the form of a gas which is conducted away, thereby further reducing the proportion of the second liquid in the outgoing fluid in the liquid state.
An image generation device characterized by comprising: image capturing means installed on a water moving object; target information acquisition means for acquiring target information about a target; augmented image generation means for generating an augmented image in which the target information acquired by the target information acquisition means is displayed in a captured image captured by the image capturing means; marker display means for displaying a marker for selecting the target, first detailed information of which is to be displayed by a user such that the marker moves according to a display place of the target in the augmented image; and marker moving means for moving the display place of at least one of a plurality of the markers so that determination regions which determining that each marker has been selected do not overlap each other; and a first detailed information display means for displaying the first detailed information about the target corresponding to the marker selected by the user based on the target information acquired by the target information acquisition means, wherein the marker display means includes different display modes of the marker for respective types of the target information acquisition means which acquire the first detailed information. image capturing means installed on a water moving object; target information acquisition means for acquiring target information about a target; augmented image generation means for generating an augmented image in which the target information acquired by the target information acquisition means is displayed in a captured image captured by the image capturing means; marker display means for displaying a marker for selecting the target, first detailed information of which is to be displayed by a user such that the marker moves according to a display place of the target in the augmented image; and marker moving means for moving the display place of at least one of a plurality of the markers so that determination regions which determining that each marker has been selected do not overlap each other; and a first detailed information display means for displaying the first detailed information about the target corresponding to the marker selected by the user based on the target information acquired by the target information acquisition means, wherein the marker display means includes different display modes of the marker for respective types of the target information acquisition means which acquire the first detailed information.
A support pad, comprising: a first cushion layer; a second cushion layer; and a sensing device positioned between the first and second cushion layers (28, 34), the sensing device comprising: a plurality of sensing elements; and a substrate including: a plurality of row and column sections (97, 100), each of the column sections comprising one or more expandable portions biased in a contracted position, each expandable portion being configured to move between the contracted position and an expanded position in response to pressure being applied thereto; a plurality of tab portions, said sensing elements being respectively located on the tab portions; and a plurality of openings defined by the row sections, the column sections, and the tab portions, said tab portions being moveable within said openings, wherein each of said tab portions has a fixed end attached to one of the row sections and a free end extending from the one of the row sections into a corresponding one of the openings. a first cushion layer; a second cushion layer; and a sensing device positioned between the first and second cushion layers (28, 34), the sensing device comprising: a plurality of sensing elements; and a substrate including: a plurality of row and column sections (97, 100), each of the column sections comprising one or more expandable portions biased in a contracted position, each expandable portion being configured to move between the contracted position and an expanded position in response to pressure being applied thereto; a plurality of tab portions, said sensing elements being respectively located on the tab portions; and a plurality of openings defined by the row sections, the column sections, and the tab portions, said tab portions being moveable within said openings, a plurality of sensing elements; and a substrate including: a plurality of row and column sections (97, 100), each of the column sections comprising one or more expandable portions biased in a contracted position, each expandable portion being configured to move between the contracted position and an expanded position in response to pressure being applied thereto; a plurality of tab portions, said sensing elements being respectively located on the tab portions; and a plurality of openings defined by the row sections, the column sections, and the tab portions, said tab portions being moveable within said openings, a plurality of row and column sections (97, 100), each of the column sections comprising one or more expandable portions biased in a contracted position, each expandable portion being configured to move between the contracted position and an expanded position in response to pressure being applied thereto; a plurality of tab portions, said sensing elements being respectively located on the tab portions; and a plurality of openings defined by the row sections, the column sections, and the tab portions, said tab portions being moveable within said openings, wherein each of said tab portions has a fixed end attached to one of the row sections and a free end extending from the one of the row sections into a corresponding one of the openings.
An architectural mesh, comprising: a mesh panel comprising a plurality of interconnected wires and having opposing front and rear sides (11, 13) and transverse openings, said mesh panel being an open mesh having interstices between said interconnected wires on said front and rear sides (11, 13); and at least one light element slidably received in one of said transverse openings, said at least one light element having a plurality of light emitter nodes emitting light through said interstices in said mesh panel on at least one of the front and rear sides (11, 13), characterized in that said interconnected wires of said mesh panel comprise helically wound spiral wires, wherein the combination of a helically wound spiral wire and two associated connector rods defines one of said transverse openings, such that each transverse opening extends along a longitudinal axis of the corresponding spiral wire wherein each of said helically wound spiral wires includes a plurality of turns, and said interstices on said front and rear sides (11, 13) of said mesh panel are formed between said turns of each of said spiral wires. a mesh panel comprising a plurality of interconnected wires and having opposing front and rear sides (11, 13) and transverse openings, said mesh panel being an open mesh having interstices between said interconnected wires on said front and rear sides (11, 13); and at least one light element slidably received in one of said transverse openings, said at least one light element having a plurality of light emitter nodes emitting light through said interstices in said mesh panel on at least one of the front and rear sides (11, 13), characterized in that said interconnected wires of said mesh panel comprise helically wound spiral wires, wherein the combination of a helically wound spiral wire and two associated connector rods defines one of said transverse openings, such that each transverse opening extends along a longitudinal axis of the corresponding spiral wire wherein each of said helically wound spiral wires includes a plurality of turns, and said interstices on said front and rear sides (11, 13) of said mesh panel are formed between said turns of each of said spiral wires.