mhurhangee/patent-ind-claim-en huggingface dataset:
A head-up display that is adapted to be disposed inside a dashboard of a vehicle having a windshield ; and that allows an observer (D) to visually recognize a virtual image , the head-up display comprising: a first display element configured to display an image; a combiner having translucency and configured to reflect the image displayed by the first display element and project the image onto the observer (D); a second display element configured to display an image; a second optical system configured to reflect the image displayed by the second display element and project the image onto the windshield ; and a housing having an opening and configured to store the first display element , the second display element , and the second optical system , wherein the second optical system includes a first mirror and a second mirror in that order on an optical path from the second display element to the windshield , the first display element is disposed at a back of the vehicle relative to the opening , the second mirror is disposed at a front of the vehicle relative to the opening , and characterized in that the first display element and the combiner are disposed above the second display element and the second optical system in a vertical direction such that the first display element is disposed closer to the opening than the second display element and the second optical system , wherein a center optical path of a light beam incident on the combiner and a center optical path of a light beam incident on the windshield cross each other near the opening such that the opening can be decreased and entrance of external light into the dashboard can be prevented. a first display element configured to display an image; a combiner having translucency and configured to reflect the image displayed by the first display element and project the image onto the observer (D); a second display element configured to display an image; a second optical system configured to reflect the image displayed by the second display element and project the image onto the windshield ; and a housing having an opening and configured to store the first display element , the second display element , and the second optical system , wherein the second optical system includes a first mirror and a second mirror in that order on an optical path from the second display element to the windshield , the first display element is disposed at a back of the vehicle relative to the opening , the second mirror is disposed at a front of the vehicle relative to the opening , and characterized in that the first display element and the combiner are disposed above the second display element and the second optical system in a vertical direction such that the first display element is disposed closer to the opening than the second display element and the second optical system , wherein a center optical path of a light beam incident on the combiner and a center optical path of a light beam incident on the windshield cross each other near the opening such that the opening can be decreased and entrance of external light into the dashboard can be prevented.
An adjustable support for a gantry for a radiotherapy apparatus, wherein the support comprises a base and a mounting member for supporting a gantry, characterised in that the position of the mounting member relative to the base is adjustable by an adjustment mechanism and adjustment of one or more flexible plates wherein the base and mounting member are joined together by the one or more flexible plates .
An ice maker comprising: a frame provided on a rear side of a refrigerator door; an ice tray rotatably installed in the frame; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates; and a rotation cooperating portion rotatably connected to the tray cover and selectively contacting an upper surface of the ice tray ; and an elastic member for giving elastic force to the rotation cooperating portion such that the rotation cooperating portion rotates in a direction such that it contacts the upper surface of the ice tray . a frame provided on a rear side of a refrigerator door; an ice tray rotatably installed in the frame; a tray cover provided to the frame and selectively opening/closing the ice tray as the ice tray rotates; and a rotation cooperating portion rotatably connected to the tray cover and selectively contacting an upper surface of the ice tray ; and an elastic member for giving elastic force to the rotation cooperating portion such that the rotation cooperating portion rotates in a direction such that it contacts the upper surface of the ice tray .
A lithium secondary battery, comprising: a cathode including a cathode current collector, and a first cathode active material layer and a second cathode active material layer sequentially formed on the cathode current collector; an anode; and a separation layer interposed between the cathode and the anode, wherein the first cathode active material layer and the second cathode active material layer include a first cathode active material particle and a second cathode active material particle, respectively, which have different compositions or crystalline structures from each other, and the first cathode active material particle and the second cathode active material particle include lithium metal oxides containing nickel, wherein the first cathode active material particle has a secondary particle structure in which primary particles are assembled, and wherein the second cathode active material particle has a single particle structure from which a secondary particle formed from aggregation or assembly of primary particles is excluded. a cathode including a cathode current collector, and a first cathode active material layer and a second cathode active material layer sequentially formed on the cathode current collector; an anode; and a separation layer interposed between the cathode and the anode, wherein the first cathode active material layer and the second cathode active material layer include a first cathode active material particle and a second cathode active material particle, respectively, which have different compositions or crystalline structures from each other, and the first cathode active material particle and the second cathode active material particle include lithium metal oxides containing nickel, wherein the first cathode active material particle has a secondary particle structure in which primary particles are assembled, and wherein the second cathode active material particle has a single particle structure from which a secondary particle formed from aggregation or assembly of primary particles is excluded.
A battery pack , comprising: a case assembly , comprising an accommodating cavity ; a battery module , disposed in the accommodating cavity , wherein the battery module comprises a battery cell assembly , the battery cell assembly comprises an output current collector and a plurality of battery cells arranged side by side along a first direction of the battery pack , and the output current collector is configured to output electric energy of the battery cell assembly ; and an end plate assembly , comprising a body plate and a protective cover , wherein the body plate is located at an end of the battery cell assembly along the first direction, and the protective cover is rotatably connected to the body plate , wherein at least a part of the output current collector is located between the body plate and the protective cover ; characterized in that a first end (M) of the output current collector is connected to an electrode terminal of a battery cell adjacent to the end plate assembly , and a second end (N) of the output current collector is bent to a side of the body plate facing away from the battery module ; and the protective cover is disposed at an end of the body plate near the output current collector along the second direction of the battery pack , and covers the part of the output current collector bent to the side of the body plate facing away from the battery module , and the second direction is perpendicular to the first direction. a case assembly , comprising an accommodating cavity ; a battery module , disposed in the accommodating cavity , wherein the battery module comprises a battery cell assembly , the battery cell assembly comprises an output current collector and a plurality of battery cells arranged side by side along a first direction of the battery pack , and the output current collector is configured to output electric energy of the battery cell assembly ; and an end plate assembly , comprising a body plate and a protective cover , wherein the body plate is located at an end of the battery cell assembly along the first direction, and the protective cover is rotatably connected to the body plate , wherein at least a part of the output current collector is located between the body plate and the protective cover ; characterized in that a first end (M) of the output current collector is connected to an electrode terminal of a battery cell adjacent to the end plate assembly , and a second end (N) of the output current collector is bent to a side of the body plate facing away from the battery module ; and the protective cover is disposed at an end of the body plate near the output current collector along the second direction of the battery pack , and covers the part of the output current collector bent to the side of the body plate facing away from the battery module , and the second direction is perpendicular to the first direction.
A method for producing rare earth permanent magnets by coating sintered magnet bodies (m) of an R 1 -Fe-B composition, R 1 is one or more elements selected from rare earth elements including Y and Sc, with a slurry in which a powder of one or more compounds selected from oxides, fluorides, oxyfluorides, hydroxides and hydrides of R 2 , R 2 is one or more elements selected from rare earth elements including Y and Sc, is dispersed in a solvent, drying the resulting sintered magnet bodies (m) to coat surfaces of the sintered magnet bodies (m) with the powder, and subjecting the resulting sintered magnet bodies (m) to heat treatment to cause absorption of R 2 into the sintered magnet bodies (m), the method comprising: disposing a fixed beam having a number of magnet body holding portions , which are provided consecutively at equal intervals and on which the sintered magnet bodies (m) are to be placed, so that a section of the fixed beam extends through the slurry ; repeating operations of lifting the sintered magnet bodies (m) placed on the magnet body holding portions , moving the sintered magnet bodies (m) forward, and placing the sintered magnet bodies (m) on the next magnet body holding portions , all by moving beams disposed along the fixed beam , whereby the sintered magnet bodies (m) are continuously transported along the fixed beam ; allowing the individual sintered magnet bodies (m) to pass through the slurry in a course of the transport thereof to coat the individual sintered magnet bodies (m) with the slurry ; and further, drying the resulting sintered magnet bodies (m) while transporting the sintered magnet bodies (m), whereby the powder is continuously deposited on the sintered magnet bodies (m). disposing a fixed beam having a number of magnet body holding portions , which are provided consecutively at equal intervals and on which the sintered magnet bodies (m) are to be placed, so that a section of the fixed beam extends through the slurry ; repeating operations of lifting the sintered magnet bodies (m) placed on the magnet body holding portions , moving the sintered magnet bodies (m) forward, and placing the sintered magnet bodies (m) on the next magnet body holding portions , all by moving beams disposed along the fixed beam , whereby the sintered magnet bodies (m) are continuously transported along the fixed beam ; allowing the individual sintered magnet bodies (m) to pass through the slurry in a course of the transport thereof to coat the individual sintered magnet bodies (m) with the slurry ; and further, drying the resulting sintered magnet bodies (m) while transporting the sintered magnet bodies (m), whereby the powder is continuously deposited on the sintered magnet bodies (m).
A fully premix gas burner system comprising a flame tube through which an air-gas mixture is to be conveyed; an electrode configured to ignite the air-gas mixture to produce a flame and to measure a flame ionization current associated with the flame ; a burner deck in which a plurality of aeration holes are formed, through which the air-gas mixture is to be forced by a variable-speed forced-air device , wherein the plurality of holes consists of 33 aeration holes having a diameter of between 1.9 and 2.1 mm; wherein the plurality of holes comprises a first group of three holes that are spaced equidistant from each other and surrounded by a second group of eleven holes that are spaced equidistant from each other and surrounded by a third group of nineteen holes that are spaced equidistant from each other, wherein a metal burner skin is located in the flame tube and is attached to the inside surface of the burner deck so that the burner skin covers the plurality of aeration holes .
A food covering comprising a silicone film of at least food grade, adapted for clinging, for resistance to deterioration at temperatures suitable for roasting and baking food and substantially transparent, characterised by having a thickness in the range 0.15mm to 0.26mm and hardness on the Shore scale in the range Shore A 25-70.
A switch short-circuited diagnosis method, configured for detecting a short-circuited state of a first bidirectional switch module ; the first bidirectional switch module comprising a first switch branch, a second switch branch, and a third switch branch; the first switch branch coupled to a first phase wire of a three-phase power source, the second switch branch coupled to a second phase wire of the three-phase power source, and the third switch branch coupled to a third phase wire of the three-phase power source, characterized in that the method comprising steps of: determining an initial voltage interval of multiple voltage intervals according to voltage relationships of a voltage of the first phase wire, a voltage of the second phase wire, and a voltage of the third phase wire; and performing a switch short-circuited diagnosis of the first bidirectional switch module in the three consecutive voltage intervals from the initial voltage interval, and comprising steps of: turning on the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module according to relationships of the voltage of the first phase wire, the voltage of the second phase wire, and the voltage of the third phase wire, determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval. determining an initial voltage interval of multiple voltage intervals according to voltage relationships of a voltage of the first phase wire, a voltage of the second phase wire, and a voltage of the third phase wire; and performing a switch short-circuited diagnosis of the first bidirectional switch module in the three consecutive voltage intervals from the initial voltage interval, and comprising steps of: turning on the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module according to relationships of the voltage of the first phase wire, the voltage of the second phase wire, and the voltage of the third phase wire, determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval. determining whether an overcurrent occurs to diagnose whether the first switch branch, the second switch branch, or the third switch branch of the first bidirectional switch module is in the short-circuited state, and performing the switch short-circuited diagnosis for the next voltage interval.
A thermoplastic elastomer composition comprising an acrylic block copolymer (I) and a hydrogenated block copolymer (II), wherein the content of the acrylic block copolymer (I) is 70 to 300 parts by mass with respect to 100 parts by mass of the hydrogenated block copolymer (II), the hydrogenated block copolymer (II) is a hydrogenated product of a block copolymer (P) including a polymer block (Al) containing structural units derived from an aromatic vinyl compound, and a polymer block (B1) containing 1 to 100 mass% of structural units (b1) derived from farnesene and 99 to 0 mass% of structural units (b2) derived from a conjugated diene other than farnesene, the mass ratio [(A1)/(B1)] of the polymer block (A1) to the polymer block (B1) being 1/99 to 70/30, and the hydrogenation ratio of carbon-carbon double bonds in the polymer block (B1) is 50 to 100 mol%. the content of the acrylic block copolymer (I) is 70 to 300 parts by mass with respect to 100 parts by mass of the hydrogenated block copolymer (II), the hydrogenated block copolymer (II) is a hydrogenated product of a block copolymer (P) including a polymer block (Al) containing structural units derived from an aromatic vinyl compound, and a polymer block (B1) containing 1 to 100 mass% of structural units (b1) derived from farnesene and 99 to 0 mass% of structural units (b2) derived from a conjugated diene other than farnesene, the mass ratio [(A1)/(B1)] of the polymer block (A1) to the polymer block (B1) being 1/99 to 70/30, and the hydrogenation ratio of carbon-carbon double bonds in the polymer block (B1) is 50 to 100 mol%.
A pivotable mounting base for an armrest of a backrest of a seat shaped to be received in a retracted position in a complementary housing provided in the padding of said backrest , said mounting base comprising a plate (51; 51'; 51") of sheet metal comprising a plate (52; 52'; 52') designed to extend along a mean plane substantially parallel to the lower part of the frame of said backrest by being rigidly fixed thereto, as well as two lateral hinge screws extending perpendicularly projecting forwards from the two lateral edges of said plate ; 52'; 52') and comprising pivoting articulation means for said armrest ; characterized in that it also comprises a metal anti-tilt anchoring element (66; 57; 91) rigidly bonded to said plate ; 52'; 52") and capable of allowing the hooking of a locking clamp provided at the end of a strap connected to the upper part of a child seat.
A method of launching an unmanned aerial vehicle (UAV), comprising: restraining a sabot in a launch tube , wherein the sabot is hollow with an open end ; introducing gas to a high-pressure side of an expandable sabot skirt of the sabot to break said restraint of said sabot in said launch tube , wherein said expandable sabot skirt is configured to provide a pressure seal with an inner circumferential wall of said launch tube , and wherein said expandable sabot skirt further comprises a circumferential skirt protrusion that extends from said expandable sabot skirt toward the inner circumferential wall of said launch tube to facilitate formation of the pressure seal; pushing said expandable sabot skirt against the inner circumferential wall of said launch tube using said gas; and driving said sabot up said launch tube using said gas. restraining a sabot in a launch tube , wherein the sabot is hollow with an open end ; introducing gas to a high-pressure side of an expandable sabot skirt of the sabot to break said restraint of said sabot in said launch tube , wherein said expandable sabot skirt is configured to provide a pressure seal with an inner circumferential wall of said launch tube , and wherein said expandable sabot skirt further comprises a circumferential skirt protrusion that extends from said expandable sabot skirt toward the inner circumferential wall of said launch tube to facilitate formation of the pressure seal; pushing said expandable sabot skirt against the inner circumferential wall of said launch tube using said gas; and driving said sabot up said launch tube using said gas.
An apparatus comprising: a suture instrument including a handle , the handle including a cavity ; a cover slidably attached to the handle to cover the cavity; a post extending upward from a bottom surface of the cavity; and a suture spool removably positioned over the post; characterized in that the post includes a force member configured to provide upward force on the spool to move the spool upward when the cover is slid off of the spool and in that the suture instrument includes an instrument post extending from the handle . a suture instrument including a handle , the handle including a cavity ; a cover slidably attached to the handle to cover the cavity; a post extending upward from a bottom surface of the cavity; and a suture spool removably positioned over the post; characterized in that the post includes a force member configured to provide upward force on the spool to move the spool upward when the cover is slid off of the spool and in that the suture instrument includes an instrument post extending from the handle .
A method for calculating a velocity of sound of a fluid flowing through at least a first vibratory flow meter , comprising: vibrating the flow meter at one or more frequencies; receiving a vibrational response; generating a first density measurement of the fluid; generating at least a second density measurement of the fluid; and characterized by : calculating a velocity of sound based on the first density measurement and the at least second density measurement; and comparing the calculated velocity of sound to an expected velocity of sound without errors and determining an error condition if the difference between the calculated velocity of sound and the expected velocity of sound without errors exceeds a threshold value. vibrating the flow meter at one or more frequencies; receiving a vibrational response; generating a first density measurement of the fluid; generating at least a second density measurement of the fluid; and characterized by : calculating a velocity of sound based on the first density measurement and the at least second density measurement; and comparing the calculated velocity of sound to an expected velocity of sound without errors and determining an error condition if the difference between the calculated velocity of sound and the expected velocity of sound without errors exceeds a threshold value. calculating a velocity of sound based on the first density measurement and the at least second density measurement; and comparing the calculated velocity of sound to an expected velocity of sound without errors and determining an error condition if the difference between the calculated velocity of sound and the expected velocity of sound without errors exceeds a threshold value.