mhurhangee/patent-ind-claim-en huggingface dataset:
A sealant discharging nozzle comprising: a nozzle body ; a through hole provided in the nozzle body , the through hole extending along a central axis of the nozzle body ; a discharge port that is an opening of the through hole provided in an end surface of the nozzle body , the discharge port having a first width in a first direction orthogonal to the central axis and a second width in a second direction orthogonal to the central axis and the first direction, the second width being smaller than the first width; a cutout formed on a first side in the first direction with respect to the discharge port ; a nozzle positioning portion that comprises a pair of tapered surfaces disposed on both sides of the discharge port in the second direction, the pair of tapered surfaces being inclined against the central axis so that a gap between the tapered surfaces becomes larger as the tapered surfaces become separated from the discharge port ; and characterized by an excessive seal leveling portion that comprises a pair of tapered surfaces disposed on both sides of the nozzle positioning portion in the second direction, inclined angles against the central axis being smaller than those of the pair of tapered surfaces disposed on both sides of the discharge port in the second direction. a nozzle body ; a through hole provided in the nozzle body , the through hole extending along a central axis of the nozzle body ; a discharge port that is an opening of the through hole provided in an end surface of the nozzle body , the discharge port having a first width in a first direction orthogonal to the central axis and a second width in a second direction orthogonal to the central axis and the first direction, the second width being smaller than the first width; a cutout formed on a first side in the first direction with respect to the discharge port ; a nozzle positioning portion that comprises a pair of tapered surfaces disposed on both sides of the discharge port in the second direction, the pair of tapered surfaces being inclined against the central axis so that a gap between the tapered surfaces becomes larger as the tapered surfaces become separated from the discharge port ; and characterized by an excessive seal leveling portion that comprises a pair of tapered surfaces disposed on both sides of the nozzle positioning portion in the second direction, inclined angles against the central axis being smaller than those of the pair of tapered surfaces disposed on both sides of the discharge port in the second direction.
A hollow, biodegradable polymeric nanosphere for release of an agent, wherein said nanosphere comprises at least one natural biodegradable polymer selected from the group consisting of: collagen and elastin, wherein said at least one natural biodegradable polymer is cross-linked by covalent linkages between the polymer and a crosslinking agent.
A method with rear cross collision warning, comprising: dividing a surrounding area of a host vehicle into a plurality of cells (C1,C2) arranged in lateral and longitudinal directions; creating a grid map on which cells, among the plurality of cells (C1,C2), corresponding to positions where a stationary object (P,P') around the host vehicle is viewed are classified as occupied cells (C1); characterized by determining a position of a reflective structure reflecting radar signals based on a positional relationship between the occupied cells (C1) on the grid map; and determining, based on the determined position of the reflective structure and either one of a position of a tracking target viewed by the radar and moving direction of the tracking target, whether the tracking target is a ghost tracking target, wherein the determining of the position of the reflective structure includes determining that the occupied cells (C1) represent one reflective structure, in response to a distance between the occupied cells in a column of the grid map being within a predetermined threshold distance, and concluding that two end cells among the occupied cells determined to represent the one reflective structure are a start occupied cell and an end occupied cell, respectively, of the one reflective structure. dividing a surrounding area of a host vehicle into a plurality of cells (C1,C2) arranged in lateral and longitudinal directions; creating a grid map on which cells, among the plurality of cells (C1,C2), corresponding to positions where a stationary object (P,P') around the host vehicle is viewed are classified as occupied cells (C1); characterized by determining a position of a reflective structure reflecting radar signals based on a positional relationship between the occupied cells (C1) on the grid map; and determining, based on the determined position of the reflective structure and either one of a position of a tracking target viewed by the radar and moving direction of the tracking target, whether the tracking target is a ghost tracking target, wherein the determining of the position of the reflective structure includes determining that the occupied cells (C1) represent one reflective structure, in response to a distance between the occupied cells in a column of the grid map being within a predetermined threshold distance, and concluding that two end cells among the occupied cells determined to represent the one reflective structure are a start occupied cell and an end occupied cell, respectively, of the one reflective structure.
A grommet comprising: a core including a chamfered inlet portion having a chamfered ratio equal to or greater than 0.10, wherein the chamfered ratio is calculated as W / D, W is a distance measured axially between an inner edge of the conical face and the annular end surface , and D is an outer diameter of the conical face where the conical face meets the annular end surface ; wherein a hole communicates through the core along a centerline and is defined at least in-part by a conical face spanning axially and radially outward to an annular end surface carried by the core , characterised in that the conical face extends transverse to a reference plane normal to the centerline at an angle of thirty degrees. a core including a chamfered inlet portion having a chamfered ratio equal to or greater than 0.10, wherein the chamfered ratio is calculated as W / D, W is a distance measured axially between an inner edge of the conical face and the annular end surface , and D is an outer diameter of the conical face where the conical face meets the annular end surface ; wherein a hole communicates through the core along a centerline and is defined at least in-part by a conical face spanning axially and radially outward to an annular end surface carried by the core , characterised in that the conical face extends transverse to a reference plane normal to the centerline at an angle of thirty degrees.
A semiconductor light emitting device comprising: a plane substrate having a flat substrate surface ; a semiconductor light emitting element mounted on the substrate surface ; and a lens formed of a resin which embeds the semiconductor light emitting element and condenses light emitted from the semiconductor light emitting element, wherein a circular ring-shaped metal ring body surrounding the semiconductor light emitting element and a plurality of regulation holes arranged inside the metal ring body at positions rotationally symmetric with respect to the center (O) of the metal ring body are provided on the substrate surface, wherein a bottom of the lens is defined by the metal ring body and the regulation holes, wherein a body part of the lens has a plurality of valley portions extending toward the top of the lens from the positions of the regulation holes, and wherein the top of the lens has a surface of a spheroid with an axis vertical to the substrate surface and passing through the center of the metal ring body as a major axis (CX). a plane substrate having a flat substrate surface ; a semiconductor light emitting element mounted on the substrate surface ; and a lens formed of a resin which embeds the semiconductor light emitting element and condenses light emitted from the semiconductor light emitting element, wherein a circular ring-shaped metal ring body surrounding the semiconductor light emitting element and a plurality of regulation holes arranged inside the metal ring body at positions rotationally symmetric with respect to the center (O) of the metal ring body are provided on the substrate surface, wherein a bottom of the lens is defined by the metal ring body and the regulation holes, wherein a body part of the lens has a plurality of valley portions extending toward the top of the lens from the positions of the regulation holes, and wherein the top of the lens has a surface of a spheroid with an axis vertical to the substrate surface and passing through the center of the metal ring body as a major axis (CX).
A method for manufacturing a basic module of a microneedle sensor, comprising a step of assembling a support with at least one staple , the support comprising an upper surface intended to be in contact with the skin of a user and a lower surface , the staple being U-shaped and comprises an arm and two branches extending from each end of the arm , the arm comprising a thickness (X) less than or equal to the thickness (X') of the support , the ends of the branches being adapted to be inserted into the skin of a user and forming two microneedles, the assembly consisting of introducing the staple into a rectangular opening formed through the entire thickness of the support so as to position the staple so that the arm does not protrude from the upper surface of the support and to align a lower surface of the arm with a lower surface of the support, and to fix the staple to the support, the staple forming microneedles, a basic module comprising at least two solid microneedles.
A method for platelet concentrate storage comprising: a. placing a platelet concentrate in a hermetically-sealed bag, wherein the bag is formed of a material that is permeable to a gas system, wherein said gas system is a gas mixture comprising xenon; b. placing the bag in a cavity of a chamber , said chamber including first and second chamber parts that form said cavity when releasably connected together; c. placing said chamber that includes said bag into a chamber cavity of a high-strength casing , said high-strength casing including first and second casing parts that form said chamber cavity when releasably connected together; d. feeding said gas system into said cavity of said chamber to at least partially saturate said platelet concentrate with xenon, said gas system being fed to said sealed chamber under pressure that is greater than atmospheric pressure at sea level; and, e. maintaining said bag of said platelet concentrate in said cavity of said chamber in said presence of said gas system for at least 0.001 hours. a. placing a platelet concentrate in a hermetically-sealed bag, wherein the bag is formed of a material that is permeable to a gas system, wherein said gas system is a gas mixture comprising xenon; b. placing the bag in a cavity of a chamber , said chamber including first and second chamber parts that form said cavity when releasably connected together; c. placing said chamber that includes said bag into a chamber cavity of a high-strength casing , said high-strength casing including first and second casing parts that form said chamber cavity when releasably connected together; d. feeding said gas system into said cavity of said chamber to at least partially saturate said platelet concentrate with xenon, said gas system being fed to said sealed chamber under pressure that is greater than atmospheric pressure at sea level; and, e. maintaining said bag of said platelet concentrate in said cavity of said chamber in said presence of said gas system for at least 0.001 hours.
An evaporative air cooler, comprising: a housing , which is provided with a receiving cavity having an opening, wherein the receiving cavity is adapted to assemble a wet curtain ; and a water dividing structure , provided above the receiving cavity ; the evaporative air cooler being characterized by further comprising a water catcher , which is movably provided on an inner wall of the receiving cavity , wherein the water catcher comprises a water catching cavity with an opening facing the water dividing structure , the water catching cavity has a water-catching state directly under the water dividing structure when the wet curtain is unassembled in the receiving cavity , and a non-water-catching state obliquely under the water dividing structure when the wet curtain is assembled in the receiving cavity . a housing , which is provided with a receiving cavity having an opening, wherein the receiving cavity is adapted to assemble a wet curtain ; and a water dividing structure , provided above the receiving cavity ; the evaporative air cooler being characterized by further comprising a water catcher , which is movably provided on an inner wall of the receiving cavity , wherein the water catcher comprises a water catching cavity with an opening facing the water dividing structure , the water catching cavity has a water-catching state directly under the water dividing structure when the wet curtain is unassembled in the receiving cavity , and a non-water-catching state obliquely under the water dividing structure when the wet curtain is assembled in the receiving cavity .
An aqueous gravure ink comprising a pigment, a water-soluble organic solvent, a surfactant and water, in which: the water-soluble organic solvent comprises a glycol ether having a boiling point of not lower than 100°C and not higher than 260°C; the surfactant comprises a silicone-based surfactant comprising a constitutional unit represented by the following general formula ; a content of the water-soluble organic solvent in the ink is not less than 1% by mass and not more than 10% by mass; and a content of water in the ink is not less than 50% by mass and not more than 80% by mass, wherein m and n are numbers of respective structural units; a is an integer of not less than 0 and not more than 40; b is an integer of not less than 1 and not more than 40; R is a hydrogen atom or an alkyl group; and a ratio of [(a + b)/(m/n)] is not less than 1.60 and not more than 4.5. the water-soluble organic solvent comprises a glycol ether having a boiling point of not lower than 100°C and not higher than 260°C; the surfactant comprises a silicone-based surfactant comprising a constitutional unit represented by the following general formula ; a content of the water-soluble organic solvent in the ink is not less than 1% by mass and not more than 10% by mass; and a content of water in the ink is not less than 50% by mass and not more than 80% by mass, wherein m and n are numbers of respective structural units; a is an integer of not less than 0 and not more than 40; b is an integer of not less than 1 and not more than 40; R is a hydrogen atom or an alkyl group; and a ratio of [(a + b)/(m/n)] is not less than 1.60 and not more than 4.5.
A vacuum cleaner comprising: a debris collection container having an outer perimeter ; a lid removably coupled to the debris collection container, the lid having a periphery that extends along the outer perimeter of the debris collection container; a suction source coupled to the lid and removable from the debris collection container with the lid, the suction source generates an airflow to draw air and debris into the debris collection container, the suction source including a motor , and an impeller driven by the motor; an exhaust passageway downstream from the suction source for discharging the airflow from the debris collection container; and an exhaust outlet port in communication with the exhaust passageway, wherein the exhaust outlet port extends along a majority of the periphery of the lid, characterised in that the exhaust passageway has a curvilinear radial 360-degrees exhaust configuration which extends radially outward from the impeller to the periphery of the lid. a debris collection container having an outer perimeter ; a lid removably coupled to the debris collection container, the lid having a periphery that extends along the outer perimeter of the debris collection container; a suction source coupled to the lid and removable from the debris collection container with the lid, the suction source generates an airflow to draw air and debris into the debris collection container, the suction source including a motor , and an impeller driven by the motor; a motor , and an impeller driven by the motor; an exhaust passageway downstream from the suction source for discharging the airflow from the debris collection container; and an exhaust outlet port in communication with the exhaust passageway, wherein the exhaust outlet port extends along a majority of the periphery of the lid, characterised in that the exhaust passageway has a curvilinear radial 360-degrees exhaust configuration which extends radially outward from the impeller to the periphery of the lid.
An anti-inflammatory composition comprising a Stauntonia Hexaphylla leaf extract as an active ingredient.
A method of managing Wireless Avionics Intra-Communication Systems, WAICSs, in a Radio Altimeter, RA, band, the method comprising: allocating , by a spectrum sensing WAICS , a plurality of RA sub-bands within the RA band to a plurality of WAICS transmitters , wherein each of the plurality of WAICS transmitters is allocated at least one of the plurality of RA sub-bands, and wherein the spectrum sensing WAICS is wirelessly connected with each of the WAICSs transmitters ; detecting , by the spectrum sensing WAICS , overlap of an RA signal with at least one RA sub-band from the plurality of RA sub-bands by continuously sampling the plurality of RA sub-bands within the RA band; allocating, by the spectrum sensing WAICS , a control RA sub-band selected from one of the RA sub-bands for sending a control signal to one or more of the WAICS transmitters whose allocated RA-sub-band overlaps with the RA signal, wherein the control signal comprises information related to a time instant of detecting the RA signal and a sweep duration of the RA signal; determining, by the spectrum sensing WAICS , time duration for switching off the one or more WAICS transmitters based on the information received in the control signal; and instructing, by the spectrum sensing WAICS , switching off , at least one of the plurality of WAICS transmitters whose allocated RA-sub-band overlaps with at least a part of the RA signal, based on the determined time duration. allocating , by a spectrum sensing WAICS , a plurality of RA sub-bands within the RA band to a plurality of WAICS transmitters , wherein each of the plurality of WAICS transmitters is allocated at least one of the plurality of RA sub-bands, and wherein the spectrum sensing WAICS is wirelessly connected with each of the WAICSs transmitters ; detecting , by the spectrum sensing WAICS , overlap of an RA signal with at least one RA sub-band from the plurality of RA sub-bands by continuously sampling the plurality of RA sub-bands within the RA band; allocating, by the spectrum sensing WAICS , a control RA sub-band selected from one of the RA sub-bands for sending a control signal to one or more of the WAICS transmitters whose allocated RA-sub-band overlaps with the RA signal, wherein the control signal comprises information related to a time instant of detecting the RA signal and a sweep duration of the RA signal; determining, by the spectrum sensing WAICS , time duration for switching off the one or more WAICS transmitters based on the information received in the control signal; and instructing, by the spectrum sensing WAICS , switching off , at least one of the plurality of WAICS transmitters whose allocated RA-sub-band overlaps with at least a part of the RA signal, based on the determined time duration.
A blood indicator panel characterised in that it comprises a series of calibrated horizontal markings, wherein each calibrated horizontal marking has a numerical value corresponding to an approximate volume of blood in a fluid; and wherein the numerical values associated with the calibrated markings are calculated from a volume measure of settled red blood cells from the fluid according to the formula: V b = V m / Hct × η wherein V b is the volume of blood, V m is the sedimentation level of red blood cells in the fluid, Hct is an average blood hematocrit value, and η is a packing ratio of settled red blood cells, wherein the packing ratio is calculated using the following formula: η = V m / V c . wherein V m is the sedimentation level of red blood cells in the fluid and V c is the actual red blood cell volume as determined through centrifugation. wherein V b is the volume of blood, V m is the sedimentation level of red blood cells in the fluid, Hct is an average blood hematocrit value, and η is a packing ratio of settled red blood cells, wherein the packing ratio is calculated using the following formula: η = V m / V c . wherein V m is the sedimentation level of red blood cells in the fluid and V c is the actual red blood cell volume as determined through centrifugation.
Pump having a DC pump drive motor with an electrically controllable stator winding and a rotor which is mounted such that it can be driven in rotation in the field of the stator winding , and which has a motor shaft , a permanent-magnet ring and a holder , which is mounted on the motor shaft and on which the permanent-magnet ring is held, wherein the holder , in order to form a drum-shaped receptacle for the permanent-magnet ring , has a circular ring-cylindrical sleeve segment , which is permanently connected to the motor shaft and two circular disks laterally delimiting the permanent-magnet ring are arranged on axially opposing front faces of the sleeve segment , of which circular disks at least one circular disk has a circular disk wall facing the permanent-magnet ring , and having a rotation prevention means , which is embodied to secure the permanent-magnet ring against rotation about the axis of the rotor on the holder , wherein the rotation prevention means is formed of at least one securing projection engaging in a form-fit manner into at least one securing recess in each case, characterised in that the securing recess is formed of a half-lens-shaped depression in an annular front wall of the permanent magnet ring and the securing projection is formed of a corresponding half-lens-shaped depression on the circular disk wall, of the at least one circular disk of the holder , facing the permanent-magnet ring .