mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting device package, comprising: a package body ; a first cavity and a second cavity , wherein the first cavity comprises an open upper side; the first cavity and second cavity being formed in the package body , wherein the second cavity is connected to the first cavity ; the first cavity positioned in a central portion of the package body, the second cavity formed under a central portion of the first cavity; a first lead electrode including a recessed portion entirely covering a side surface and a bottom surface of the second cavity, a bottom surface of the recessed portion of the first lead electrode being flush with a bottom surface of the package body; a second lead electrode including a first end disposed on the first cavity, and a second end extended from the first end to an outside of the package body; a recess being concave to a predetermined depth with respect to the bottom surface of the package body, the recess defining a vacant space, the bottom surface of the recessed portion of the first lead electrode being exposed in the recess to be flush with the floor of the recess, and a light emitting device disposed in the second cavity on the first lead electrode . a package body ; a first cavity and a second cavity , wherein the first cavity comprises an open upper side; the first cavity and second cavity being formed in the package body , wherein the second cavity is connected to the first cavity ; the first cavity positioned in a central portion of the package body, the second cavity formed under a central portion of the first cavity; a first lead electrode including a recessed portion entirely covering a side surface and a bottom surface of the second cavity, a bottom surface of the recessed portion of the first lead electrode being flush with a bottom surface of the package body; a second lead electrode including a first end disposed on the first cavity, and a second end extended from the first end to an outside of the package body; a recess being concave to a predetermined depth with respect to the bottom surface of the package body, the recess defining a vacant space, the bottom surface of the recessed portion of the first lead electrode being exposed in the recess to be flush with the floor of the recess, and a light emitting device disposed in the second cavity on the first lead electrode .
Manufacturing mould for manufacturing a cable harness for a vehicle, - wherein the manufacturing mould comprises a mould body and at least a first actuator , - wherein the mould body is formed from an elastically reversibly deformable material and at least partially surrounds a mould cavity , - wherein the first actuator is coupled to a first partial portion of the mould body , - wherein the first partial portion at least partially delimits the mould cavity on the inside, - wherein the cable harness can at least be manufactured in the mould cavity , - wherein the first actuator is configured to reversibly pivot the first partial portion between a first position and a second position which is different from the first position. - wherein the manufacturing mould comprises a mould body and at least a first actuator , - wherein the mould body is formed from an elastically reversibly deformable material and at least partially surrounds a mould cavity , - wherein the first actuator is coupled to a first partial portion of the mould body , - wherein the first partial portion at least partially delimits the mould cavity on the inside, - wherein the cable harness can at least be manufactured in the mould cavity , - wherein the first actuator is configured to reversibly pivot the first partial portion between a first position and a second position which is different from the first position.
The composition for preparing surgical hemostatic film rice starch - based was comprised as following. a) 4 %w/v gelatinized rice starch aqueous solution b) 10 %w/v polyvinyl alcohol aqueous solution c) 10 %w/v carboxymethyl cellulose aqueous solution d) Glycerol a) 4 %w/v gelatinized rice starch aqueous solution b) 10 %w/v polyvinyl alcohol aqueous solution c) 10 %w/v carboxymethyl cellulose aqueous solution d) Glycerol
A polyketone copolymer having outstanding water resistance, moisture-absorption rate and shock resistance comprising repeating units represented by the following general formulas , of which the intrinsic viscosity is from 1.0 to 2.0 dl/g and molecular weight distribution is from 1.5 to 2.5 -[-CH 2 CH 2 -CO]x- -[-CH 2 -CH(CH 3 )-CO]y- wherein x,y represents the mole % of each of general formulas and in the copolymer, and y/x of the general formulas and is from 0.03 to 0.3, and wherein a ligand of catalyst composition used in polymerization of the polyketone copolymer is ((2,2-dimethyl-1,3-dioxane-5,5-diyl)bis(methylene))bis(bis(2-methoxyphenyl)phosphine).
A method of monitoring a Maintenance Association for Connectivity Fault Management in a network supporting Equal Cost Multiple Paths, ECMP, the method comprising: generating a set of ECMP multipoint paths, each of the ECMP multipoint paths providing connectivity among more than two endpoints in the network, each of the ECMP multipoint paths comprising a set of connectivity multipoint paths along the respective more than two endpoints which are the same for the considered ECMP multipoint path, each of the ECMP multipoint paths being identified using a respective group address; creating a set of ECMP Maintenance Associations, MAs, each of the ECMP MAs being for monitoring, between its endpoints, a respective ECMP multipoint path of the generated ECMP multipoint paths; and using the created set of ECMP MAs for sending monitoring packets. generating a set of ECMP multipoint paths, each of the ECMP multipoint paths providing connectivity among more than two endpoints in the network, each of the ECMP multipoint paths comprising a set of connectivity multipoint paths along the respective more than two endpoints which are the same for the considered ECMP multipoint path, each of the ECMP multipoint paths being identified using a respective group address; creating a set of ECMP Maintenance Associations, MAs, each of the ECMP MAs being for monitoring, between its endpoints, a respective ECMP multipoint path of the generated ECMP multipoint paths; and using the created set of ECMP MAs for sending monitoring packets.
A movable vane for a wheel of an aircraft turbine engine , the vane comprising an aerodynamic blade extending along a stacking axis (Z), the blade being delimited by an inner root and an outer heel along the stacking axis (Z), the heel comprising at least a first protruding lip intended to cooperate with a block of abradable material , the vane comprising an internal circuit capable of receiving a first minor gas flow (f1), this circuit comprising a supply cavity opening at the root via at least one inlet opening , the circuit comprising at least two ducts connected with the supply cavity and each opening onto an external surface of the first lip via a discharge opening so that a gas jet (J) of the first minor gas flow (f1) is adapted to be expelled from each discharge opening , each duct being oriented such that the corresponding gas jet (J) is adapted to be projected towards a second minor gas flow (f2) leaking between the heel and a directly adjacent member , characterised in that one of the two discharge openings is arranged at an outer face of the first lip , and the other of the two discharge openings is arranged at a lateral face of the first lip .
A method for detecting a presence or an absence of at least one inhibition , the method comprising the steps consisting in: a. providing an agar culture medium ; b. providing a sample containing or liable to contain microorganisms in liquid form; c. depositing a volume of the sample in liquid form along a deposition zone extending along an axis at the surface of the agar culture medium; d. depositing a determined amount of a chemical agent at the surface of the agar culture medium, the deposit defining a potential zone of inhibition , the axis of the zone of deposition of the sample intersecting the potential zone of inhibition; e. incubating the agar culture medium ; f. determining the presence or the absence of the first zone of inhibition; characterized in that the step c) consists in: - depositing a volume of the sample in liquid form in a continuous line along a deposition zone extending along an axis at the surface of the agar culture medium; - or depositing a volume of the sample in liquid form in droplets along a deposition zone extending along an axis at the surface of the culture medium. a. providing an agar culture medium ; b. providing a sample containing or liable to contain microorganisms in liquid form; c. depositing a volume of the sample in liquid form along a deposition zone extending along an axis at the surface of the agar culture medium; d. depositing a determined amount of a chemical agent at the surface of the agar culture medium, the deposit defining a potential zone of inhibition , the axis of the zone of deposition of the sample intersecting the potential zone of inhibition; e. incubating the agar culture medium ; f. determining the presence or the absence of the first zone of inhibition; - depositing a volume of the sample in liquid form in a continuous line along a deposition zone extending along an axis at the surface of the agar culture medium; - or depositing a volume of the sample in liquid form in droplets along a deposition zone extending along an axis at the surface of the culture medium.
A dish washing machine , comprising: a body ; a plurality of jet nozzles configured to jet washing water; a sump configured to store washing water; a pump including a pumping motor configured to pump the washing water stored in the sump, a pumping motor shaft , and a housing including a plurality of outlets ; and a distributor configured to distribute the washing water pumped by the pump to at least one of the plurality of jet nozzles through at least one of the plurality of outlets, the distributor including: a distributor motor shaft having an axial direction different from an axial direction of the pumping motor shaft, at least one opening and closing member configured to be rotatable in the housing of the pump to selectively open and close at least one of the plurality of outlets, and a distributor motor configured to rotate the at least one opening and closing member about the distributor motor shaft, characterized in that , the at least one opening and closing member includes a first opening and closing member and a second opening and closing member disposed one after the other along the axial direction of the distributor motor shaft. a body ; a plurality of jet nozzles configured to jet washing water; a sump configured to store washing water; a pump including a pumping motor configured to pump the washing water stored in the sump, a pumping motor shaft , and a housing including a plurality of outlets ; and a distributor configured to distribute the washing water pumped by the pump to at least one of the plurality of jet nozzles through at least one of the plurality of outlets, the distributor including: a distributor motor shaft having an axial direction different from an axial direction of the pumping motor shaft, at least one opening and closing member configured to be rotatable in the housing of the pump to selectively open and close at least one of the plurality of outlets, and a distributor motor configured to rotate the at least one opening and closing member about the distributor motor shaft, characterized in that , the at least one opening and closing member includes a first opening and closing member and a second opening and closing member disposed one after the other along the axial direction of the distributor motor shaft. a distributor motor shaft having an axial direction different from an axial direction of the pumping motor shaft, at least one opening and closing member configured to be rotatable in the housing of the pump to selectively open and close at least one of the plurality of outlets, and a distributor motor configured to rotate the at least one opening and closing member about the distributor motor shaft, characterized in that , the at least one opening and closing member includes a first opening and closing member and a second opening and closing member disposed one after the other along the axial direction of the distributor motor shaft.
A method for continuously manufacturing an electrode comprising the following steps made simultaneously and continuously: a) continuously travelling a current collector , the current collector having a first face and a second face opposite to the first face, the current collector having at least one non-deburred through hole, extending from the first face to the second face, the burr projecting onto the first face of the current collector , b) continuously depositing an ink on the first face of the current collector , the ink comprising at least a solvent and an electrode active material , c) continuously sucking the ink deposited, through the current collector , from the first face to the second face of the current collector , by a sucking system , located on the second face of the current collector , to remove the solvent, so as to form an electrode, the thickness of the electrode being greater than the radius of the through hole, a filter being disposed between the current collector and the sucking system , the filter having pore sizes ranging from 0.1μm to 50μm, and preferably from 0.2μm to 5μm, so as to retain the active material . a) continuously travelling a current collector , the current collector having a first face and a second face opposite to the first face, the current collector having at least one non-deburred through hole, extending from the first face to the second face, the burr projecting onto the first face of the current collector , b) continuously depositing an ink on the first face of the current collector , the ink comprising at least a solvent and an electrode active material , c) continuously sucking the ink deposited, through the current collector , from the first face to the second face of the current collector , by a sucking system , located on the second face of the current collector , to remove the solvent, so as to form an electrode, the thickness of the electrode being greater than the radius of the through hole,
A method for preparing a solid catalyst for propylene polymerization, the method comprising: reacting dialkoxy magnesium and titanium halide compounds under presence of an organic solvent; reacting a product of the step with an internal electron donor mixture, wherein the internal electron donor mixture includes a mixture between 1,4-cyclohexadiene-1,2-dicarboxylic acid 1,2-dialkylester (A) and ethyl benzoate (B): where each of R 1 and R 2 represents a linear or branched alkyl group of 2 to 8 carbon atoms or a cyclic alkyl group of 3 to 8 carbon atoms; and reacting the product of the step with a titanium halide compound, and washing the product thereof. reacting dialkoxy magnesium and titanium halide compounds under presence of an organic solvent; reacting a product of the step with an internal electron donor mixture, wherein the internal electron donor mixture includes a mixture between 1,4-cyclohexadiene-1,2-dicarboxylic acid 1,2-dialkylester (A) and ethyl benzoate (B): where each of R 1 and R 2 represents a linear or branched alkyl group of 2 to 8 carbon atoms or a cyclic alkyl group of 3 to 8 carbon atoms; and reacting the product of the step with a titanium halide compound, and washing the product thereof.
Vehicle roof comprising at least one roof element and a shaped headliner arranged at a distance from the roof element , characterized in that, in order to increase the vehicle roof buckling resistance, at least one resilient tensioning spacer element is arranged under pressure between the shaped headliner and the roof element , wherein, in the mounted state, the tensioning spacer element is compressed in the vehicle vertical direction (z-direction) by an excess (Ü) of 0.5 mm to 5 mm.
An implantable medical device , comprising: a housing coupled to electrodes ; a power source within the housing ; memory , within the housing , configured to store program instructions; a sensing circuit configured to sense cardiac signals from the electrodes , the cardiac signals representative of a ventricular tachycardia (VT) episode that comprises at least a select number of VT events having corresponding VT cycle lengths ; and one or more processors within the housing , wherein, responsive to execution of the program instructions, the one or more processors are configured to: analyze the VT cycle length to define an anti-tachycardia pacing (ATP) therapy that comprises a first coupling interval ; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes ; and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length , characterized in that the first coupling interval is a programmed percentage of a VT cycle length to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes . a housing coupled to electrodes ; a power source within the housing ; memory , within the housing , configured to store program instructions; a sensing circuit configured to sense cardiac signals from the electrodes , the cardiac signals representative of a ventricular tachycardia (VT) episode that comprises at least a select number of VT events having corresponding VT cycle lengths ; and one or more processors within the housing , wherein, responsive to execution of the program instructions, the one or more processors are configured to: analyze the VT cycle length to define an anti-tachycardia pacing (ATP) therapy that comprises a first coupling interval ; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes ; and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length , characterized in that the first coupling interval is a programmed percentage of a VT cycle length to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes . analyze the VT cycle length to define an anti-tachycardia pacing (ATP) therapy that comprises a first coupling interval ; deliver a first ATP pulse that is spaced the first coupling interval after a reference refractory VT event sensed at the electrodes ; and deliver a second ATP pulse following the first ATP pulse by a non-stimulation segment that is at least one and three-quarters (1.75) times a projected VT cycle length , characterized in that the first coupling interval is a programmed percentage of a VT cycle length to time the first ATP pulse to occur during a non-refractory state of tissue proximate to the electrodes .
An X-ray apparatus comprising: a source configured to emit X-rays to an object; a detector configured to detect the X-rays that have been penetrated the object; an arm movably attached to a stand and configured to move the source and the detector, for obtaining a plurality of images of respective portions of the object; a controller configured to image a first portion of respective portions of the object, based on X-rays detected by the detector to obtain a first image of the plurality of images, control the arm to rotate, image a second portion of the respective portions, based on X-rays detected by the detector to obtain a second image of the plurality of images after the arm has rotated; and an image processor configured to generate the first image and the second image, CHARACTERIZED IN THAT the image processor is configured to adjust an enlargement ratio or reduction ratio of at least one among the first image and the second image based on a distance between the object and the detector , and generate a combination image by combining the first image and the second image. a source configured to emit X-rays to an object; a detector configured to detect the X-rays that have been penetrated the object; an arm movably attached to a stand and configured to move the source and the detector, for obtaining a plurality of images of respective portions of the object; a controller configured to image a first portion of respective portions of the object, based on X-rays detected by the detector to obtain a first image of the plurality of images, control the arm to rotate, image a second portion of the respective portions, based on X-rays detected by the detector to obtain a second image of the plurality of images after the arm has rotated; and an image processor configured to generate the first image and the second image, CHARACTERIZED IN THAT the image processor is configured to adjust an enlargement ratio or reduction ratio of at least one among the first image and the second image based on a distance between the object and the detector , and generate a combination image by combining the first image and the second image.
A liquid ejection head comprising: a liquid ejection unit configured to eject liquid; and a base portion comprising: an ink flow path connected to the liquid ejection unit and through which ink supplied to the liquid ejection unit passes; and a temperature control flow path through which a fluid for temperature control passes, wherein the liquid ejection unit comprises an actuator including a plurality of pressure chambers communicating with a plurality of nozzles for ejecting liquid in an ejection direction and a common liquid chamber communicating with the plurality of pressure chambers wherein the plurality of nozzles are aligned in an alignment direction orthogonal to the ejection direction, the base portion comprises a pair of base plates that are assembled facing each other in a direction orthogonal to the ejection direction and to the alignment direction, and the ink flow path 122, 124) and the temperature control flow path are formed by grooves formed on at least one of facing surfaces of the pair of the base plates . a liquid ejection unit configured to eject liquid; and a base portion comprising: an ink flow path connected to the liquid ejection unit and through which ink supplied to the liquid ejection unit passes; and a temperature control flow path through which a fluid for temperature control passes, an ink flow path connected to the liquid ejection unit and through which ink supplied to the liquid ejection unit passes; and a temperature control flow path through which a fluid for temperature control passes, wherein the liquid ejection unit comprises an actuator including a plurality of pressure chambers communicating with a plurality of nozzles for ejecting liquid in an ejection direction and a common liquid chamber communicating with the plurality of pressure chambers wherein the plurality of nozzles are aligned in an alignment direction orthogonal to the ejection direction, the base portion comprises a pair of base plates that are assembled facing each other in a direction orthogonal to the ejection direction and to the alignment direction, and the ink flow path 122, 124) and the temperature control flow path are formed by grooves formed on at least one of facing surfaces of the pair of the base plates .