mhurhangee/patent-ind-claim-en huggingface dataset:
A glenoid system , comprising: a baseplate configured to attach to a glenoid cavity of a patient, the baseplate defining a lateral-facing surface extending from a superior end of the baseplate to an inferior end of the baseplate, the lateral-facing surface facing laterally when the baseplate is attached to the glenoid cavity, the baseplate defining a superior hole through the lateral-facing surface proximate the superior end of the baseplate, the baseplate defining an inferior hole through the lateral-facing surface proximate the inferior end of the baseplate, the baseplate defining a circumferential edge around at least a portion of the lateral-facing surface , the circumferential edge defining a circumferential groove therein; and a biocompatible plastic liner shaped to snap into the circumferential groove of the baseplate and thereby attach to the baseplate, the biocompatible plastic liner including a flexible raised lip around at least a portion of its circumference, the glenoid system characterized in the biocompatible plastic liner at least partially covering the lateral-facing surface of the baseplate when attached to the baseplate, and the flexible raised lip being configured to deflect radially outward, engage the circumferential groove , and retract radially into the circumferential groove when the biocompatible plastic liner is forced against the baseplate . a baseplate configured to attach to a glenoid cavity of a patient, the baseplate defining a lateral-facing surface extending from a superior end of the baseplate to an inferior end of the baseplate, the lateral-facing surface facing laterally when the baseplate is attached to the glenoid cavity, the baseplate defining a superior hole through the lateral-facing surface proximate the superior end of the baseplate, the baseplate defining an inferior hole through the lateral-facing surface proximate the inferior end of the baseplate, the baseplate defining a circumferential edge around at least a portion of the lateral-facing surface , the circumferential edge defining a circumferential groove therein; and a biocompatible plastic liner shaped to snap into the circumferential groove of the baseplate and thereby attach to the baseplate, the biocompatible plastic liner including a flexible raised lip around at least a portion of its circumference, the glenoid system characterized in the biocompatible plastic liner at least partially covering the lateral-facing surface of the baseplate when attached to the baseplate, and the flexible raised lip being configured to deflect radially outward, engage the circumferential groove , and retract radially into the circumferential groove when the biocompatible plastic liner is forced against the baseplate .
A method for obtaining a quantity of blind detection times, wherein the method comprises: receiving (S601), by a terminal device, second information from a network device, wherein the second information comprises subcarrier spacing information; and determining (S602), by the terminal device based on the subcarrier spacing information, a maximum quantity of blind detection times for the terminal device in a search space comprising: determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device. receiving (S601), by a terminal device, second information from a network device, wherein the second information comprises subcarrier spacing information; and determining (S602), by the terminal device based on the subcarrier spacing information, a maximum quantity of blind detection times for the terminal device in a search space comprising: determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device. determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device.
A ceramic filter comprising a monolithic porous body and a separation membrane , wherein the monolithic porous body has both end faces and an outer peripheral face , plural filtration cells extending from one end face to the other end face for a length L and forming rows, and plural water collection cells extending from one end face to the other end face and forming rows, the water collection cells being plugged in both the end faces , the separation membrane being disposed on inner wall faces of the filtration cells of the monolithic porous body , and wherein plural discharge channels are formed for each row of water collection cells, to allow the plural water collection cells formed in rows to communicate with one another, and allow the plural water collection cells to communicate with an external space by having apertures on the outer peripheral face of the monolithic porous body, each discharge channel having an aperture length d 1 , wherein the ratio m/n of the number m of the rows of filtration cells to the number n of the rows of water collection cells is between 1 and 4, and wherein the plural discharge channels are formed adjacent to each other in the channel direction of the water collection cells , characterized in that : the total aperture length of the plural discharge channels formed adjacent to each other in the channel direction of the water collection cells for each row of the water collection cells parallel to the channel direction of the water collection cells is at least 10% of the length L of the filtration cells , and the longest interval (d 2 , d 3 , d 4 , d 5 , d 6 , d 7 ) between discharge channels adjacent to each other in the channel direction of the water collection cells is at most 45% of the length of the filtration cells . the total aperture length of the plural discharge channels formed adjacent to each other in the channel direction of the water collection cells for each row of the water collection cells parallel to the channel direction of the water collection cells is at least 10% of the length L of the filtration cells , and the longest interval (d 2 , d 3 , d 4 , d 5 , d 6 , d 7 ) between discharge channels adjacent to each other in the channel direction of the water collection cells is at most 45% of the length of the filtration cells .
A prosthetic heart valve leaflet comprising a fibrous composite material composed of a plurality of electrospun fibers at least partially embedded in a polymer matrix, characterized by the polymer matrix comprising a polyisobutylene urethane copolymer and the electrospun fibers comprising a polyurethane, fluoropolymer, polyester or a tri-block polymer.
Process for preparing precipitated silica, of the type comprising the reaction of an alkali metal M silicate with at least one acid, whereby a silica suspension is obtained, followed by the separation and drying of this suspension, in which the reaction of the silicate with the acid is performed in the following manner: (i) an initial aqueous stock comprising alkali metal M silicate is formed, the concentration of silicate expressed as SiO 2 in said stock being less than 20 g/L, preferably at most 15 g/L, (ii) acid is added to said initial stock, until at least 50% of the amount of M 2 O present in said initial stock is neutralized, (iii) alkali metal M silicate and acid are simultaneously added to the reaction medium, such that the ratio of the amount of silicate added expressed as SiO 2 / amount of silicate present in the initial stock expressed as SiO 2 is greater than 4 and at most 100, preferably between 12 and 100, in particular between 12 and 50, (iv) the addition of the silicate is stopped while continuing the addition of the acid to the reaction medium until a pH value in the reaction medium of between 2.5 and 5.3, preferably between 2.8 and 5.2, is obtained, (v) the reaction medium is placed in contact with acid and silicate so that the pH of the reaction medium is maintained between 2.5 and 5.3, preferably between 2.8 and 5.2, in which process, in at least part of step (iii), the acid used is a concentrated acid chosen from the group consisting of sulfuric acid with a concentration of at least 80% by weight, in particular of at least 90% by weight, acetic acid or formic acid with a concentration of at least 90% by weight, nitric acid with a concentration of at least 60% by weight, phosphoric acid with a concentration of at least 75% by weight, hydrochloric acid with a concentration of at least 30% by weight. (i) an initial aqueous stock comprising alkali metal M silicate is formed, the concentration of silicate expressed as SiO 2 in said stock being less than 20 g/L, preferably at most 15 g/L, (ii) acid is added to said initial stock, until at least 50% of the amount of M 2 O present in said initial stock is neutralized, (iii) alkali metal M silicate and acid are simultaneously added to the reaction medium, such that the ratio of the amount of silicate added expressed as SiO 2 / amount of silicate present in the initial stock expressed as SiO 2 is greater than 4 and at most 100, preferably between 12 and 100, in particular between 12 and 50, (iv) the addition of the silicate is stopped while continuing the addition of the acid to the reaction medium until a pH value in the reaction medium of between 2.5 and 5.3, preferably between 2.8 and 5.2, is obtained, (v) the reaction medium is placed in contact with acid and silicate so that the pH of the reaction medium is maintained between 2.5 and 5.3, preferably between 2.8 and 5.2,
An actuating device for a lock having a lock follower , said actuating device comprising a polygonal pin having a first end section on which a first handle is disposed and a second end section on which a second handle is disposed, the polygonal pin consisting of multiple parts and comprising a base pin and a slider comprising an actuating element, which is disposed on the first handle and which is capable of being manually actuated, and being capable of being shifted with respect to the base pin parallel to the axis of the polygonal pin between an engagement position in which it is able to be engaged with the lock follower and a blocking position in which the polygonal pin is rotatable with respect to the lock follower or in which the polygonal pin is blockable with respect to a rotation about its axis, the slider interacting with an emergency unlocking device on the side of the second handle , characterized in that the emergency unlocking device comprises an unlocking element which is pressurized and movable within the second handle and which serves to move the slider axially into the engagement position.
An automatic cut and transfer coiler and spooler comprising: a turret having a first side , a second side , and said turret is adapted to selectively and independently rotate via a main direct drive system connected to said second side; a first spindle attached to said first side of said turret and adapted to selectively and independently rotate for coiling and spooling via a first independent direct drive system attached to said second side of said turret and in communication with said first spindle; a second spindle attached to said first side of said turret and adapted to selectively and independently rotate for coiling and spooling via a second independent direct drive system attached to said second side of said turret and in communication with said second spindle; and a master control computer in communication with said main direct drive system, said first independent drive system, and said second independent drive system for selectively and independently rotating said turret, said first spindle, and said second spindle respectively, wherein the main direct drive system is in a fixed relationship to the turret and is adapted to provide power to the first direct drive system and the second direct drive system via a slip ring . a turret having a first side , a second side , and said turret is adapted to selectively and independently rotate via a main direct drive system connected to said second side; a first spindle attached to said first side of said turret and adapted to selectively and independently rotate for coiling and spooling via a first independent direct drive system attached to said second side of said turret and in communication with said first spindle; a second spindle attached to said first side of said turret and adapted to selectively and independently rotate for coiling and spooling via a second independent direct drive system attached to said second side of said turret and in communication with said second spindle; and a master control computer in communication with said main direct drive system, said first independent drive system, and said second independent drive system for selectively and independently rotating said turret, said first spindle, and said second spindle respectively, wherein the main direct drive system is in a fixed relationship to the turret and is adapted to provide power to the first direct drive system and the second direct drive system via a slip ring .
A laser apparatus comprising: one or more laser diodes and two or more optical combiners , and an asymmetric tap coupler , wherein output sides of the one or more laser diodes are connected to an input side of one optical combiners among the two or more optical combiners , and an output side of the one-optical combiner is connected to an input side of an optical combiner other than the one optical combiner , optical fibers used in input ports and output ports of the two or more optical combiners are multi-mode optical fibers, wherein flatness of laser light output from the optical combiner is improved compared with flatness of laser light when the optical combiner does not exist, wherein the flatness tends to be higher when a full width at half maximum of a spatial intensity distribution of laser light is smaller and therefore, the full width at half maximum is used as an index to judge the laser light flatness, an input side of the asymmetric tap coupler is connected to an output side of one of the two or more optical combiners , which is arranged in a rearmost stage, a higher-order mode light excited by the optical combiner is removed by the asymmetric tap coupler , and a ring beam is formed from the position of the tap port. one or more laser diodes and two or more optical combiners , and an asymmetric tap coupler , wherein output sides of the one or more laser diodes are connected to an input side of one optical combiners among the two or more optical combiners , and an output side of the one-optical combiner is connected to an input side of an optical combiner other than the one optical combiner , optical fibers used in input ports and output ports of the two or more optical combiners are multi-mode optical fibers, wherein flatness of laser light output from the optical combiner is improved compared with flatness of laser light when the optical combiner does not exist, wherein the flatness tends to be higher when a full width at half maximum of a spatial intensity distribution of laser light is smaller and therefore, the full width at half maximum is used as an index to judge the laser light flatness, an input side of the asymmetric tap coupler is connected to an output side of one of the two or more optical combiners , which is arranged in a rearmost stage, a higher-order mode light excited by the optical combiner is removed by the asymmetric tap coupler , and a ring beam is formed from the position of the tap port.
A method of producing an automobile fuel tank comprising a tank body , an outer wall of the tank body being formed of a synthetic resin layer composed of a multilayer configuration, wherein the synthetic resin layer includes an inner body layer and an outer body layer with a barrier layer interposed between the inner body layer and the outer body layer, and the inner body layer includes a base layer and a structural member with an air space internally provided, characterized in that the method comprises: forming the outer wall of the inner body layer and the outer body layer with the barrier layer interposed between the inner body layer and the outer body layer, exclusive of the structural member that is a foamed layer in which a same resin as the base layer is foamed; and welding the foamed layer only to an inner face of the inner body layer . forming the outer wall of the inner body layer and the outer body layer with the barrier layer interposed between the inner body layer and the outer body layer, exclusive of the structural member that is a foamed layer in which a same resin as the base layer is foamed; and welding the foamed layer only to an inner face of the inner body layer .
A trading card, comprising: a main portion having any character of a plurality of characters represented on at least one surface; and an electronic component for contactless communication, which is contained in the main portion, the electronic component including a storage portion which stores data related to a character represented on the main portion, wherein the data related to the character represented on the main portion includes identification information (106A to 106C, 112A to 112C) for specifying the character and identification information representing a series of applications in which the character is available, characterized in that the storage portion includes a first storage area in which writing of additional data is restricted and a second storage area in which writing of additional data is not restricted, the identification information (106A to 106C; 112A to 112C) for specifying the character and the identification information representing the series of applications in which the character is available being stored in the first storage area and a circuit which writes data received from an external apparatus through contactless communication into the second storage area of the storage portion. a main portion having any character of a plurality of characters represented on at least one surface; and an electronic component for contactless communication, which is contained in the main portion, the electronic component including a storage portion which stores data related to a character represented on the main portion, wherein the data related to the character represented on the main portion includes identification information (106A to 106C, 112A to 112C) for specifying the character and identification information representing a series of applications in which the character is available, characterized in that the storage portion includes a first storage area in which writing of additional data is restricted and a second storage area in which writing of additional data is not restricted, the identification information (106A to 106C; 112A to 112C) for specifying the character and the identification information representing the series of applications in which the character is available being stored in the first storage area and a circuit which writes data received from an external apparatus through contactless communication into the second storage area of the storage portion.
Method for testing a component, in particular an aircraft engine, comprising the steps of: - determining (S40) a value of a first tolerated parameter (A1; A2) of the component; - determining (S50) a value of a second tolerated parameter (E1 ;...:E4) of the component; and - classifying (S70) the component into a predefined quality class if this pair of values lies outside a predefined tolerance range, the upper and/or lower limit (G) of which for the second parameter is dependent on the first parameter in at least a first permissible value range (Ta1, 1) of the first parameter, in particular linearly; wherein determination of a parameter comprises measuring one or more times and/or one or more of the steps being carried out in an at least partially automated manner. - determining (S40) a value of a first tolerated parameter (A1; A2) of the component; - determining (S50) a value of a second tolerated parameter (E1 ;...:E4) of the component; and - classifying (S70) the component into a predefined quality class if this pair of values lies outside a predefined tolerance range, the upper and/or lower limit (G) of which for the second parameter is dependent on the first parameter in at least a first permissible value range (Ta1, 1) of the first parameter, in particular linearly; wherein determination of a parameter comprises measuring one or more times and/or one or more of the steps being carried out in an at least partially automated manner.
Insulating element for the insulated coupling of electrical conductors in gas-insulated switchgear assemblies which have a first insulated electrically conductive conductor , which is connected to a first insulating body , and a second insulated electrically conductive conductor , which is connected to a second insulating body , wherein these conductors are electrically coupled to one another by way of a multipartite connecting means , the conductors and also the connecting means are received in a housing , composed of a first housing part and a second housing part , and also a protective sheathing , and the insulating element is adapted for electrically insulating the conductors and the connecting means from the housing and also the protective sheathing , wherein the flexible insulating element is highly flexible, consists of a stable flexible sleeve , is of tubular design, has a cavity for receiving the conductors and the connecting means and has a collar at each of its two ends, each of which collars are adapted for a clamping device to be able to engage therein in order to thereby maintain the pressure on the insulating element and thereby to prevent the formation of a gap at a boundary surface between the insulating bodies and the insulating element , and the flexible insulating element is flexibly deformable in such a way that it can be turned inside out, as a result of which it can release the connecting means , and the insulating element is characterized in that the flexible sleeve is a flexible silicone sleeve which is filled with an insulating agent , wherein the insulating agent is formed from a liquid or gel-like material, and the insulating agent is silicone oil or high-viscosity silicone gel.