mhurhangee/ep-ind-claims huggingface dataset:
Use of an upflow reactor for producing a dihydroxy compound, said upflow reactor comprising: - a vessel; - a catalyst bed disposed in said vessel; - a distributor in fluid communication with an inlet through which reactants are introduced to said distributor, said distributor being disposed at a lower end of said vessel and comprising a distributor perforation disposed in said distributor, at least part of which distributor perforation is in a direction facing away from said catalyst bed; and - a collector through which said product dihydroxy compound is removed, said collector being disposed at an upper end of said vessel. - a vessel; - a catalyst bed disposed in said vessel; - a distributor in fluid communication with an inlet through which reactants are introduced to said distributor, said distributor being disposed at a lower end of said vessel and comprising a distributor perforation disposed in said distributor, at least part of which distributor perforation is in a direction facing away from said catalyst bed; and - a collector through which said product dihydroxy compound is removed, said collector being disposed at an upper end of said vessel.
A ballistic layer for a ballistic multilayer arrangement, which is formed by an absorption layer (2, 2a, 2b) that entirely or largely comprises expanded glass, namely foamed glass with small gas-filled or air-filled pores, wherein the expanded glass is present in the form of sintered expanded-glass granulate, which is held in a dense packing or fill by means of a matrix that encloses the expanded-glass granulate.
A current monitor comprising: a housing configured to be coupled to an electric power line; an inductive current sensor (210, 210a, 210b, 210c) in the housing configured to measure a value of a current on the electric power line to generate a sensor signal; a power source, wherein the power source is the electric power line; a power resistor in the housing coupled to the electric power line configured to generate a power voltage from an electric power line voltage; a sensing resistor in the housing coupled to the electric power line configured to generate a voltage sensor signal; a sensor signal conversion circuit (390, 430, 440) in the housing configured to receive power from the power source and to generate a current output signal based on the sensor signal, to receive the power voltage, and to generate a voltage output signal based on the voltage sensor signal, characterized in that: the power resistor shields the sensing resistor from noise or environmental temperature variation; and/or the sensor signal conversion circuit (390, 430, 440) is configured to utilize the power voltage to generate the voltage output signal when little or no current is present on the electric power line. a housing configured to be coupled to an electric power line; an inductive current sensor (210, 210a, 210b, 210c) in the housing configured to measure a value of a current on the electric power line to generate a sensor signal; a power source, wherein the power source is the electric power line; a power resistor in the housing coupled to the electric power line configured to generate a power voltage from an electric power line voltage; a sensing resistor in the housing coupled to the electric power line configured to generate a voltage sensor signal; a sensor signal conversion circuit (390, 430, 440) in the housing configured to receive power from the power source and to generate a current output signal based on the sensor signal, to receive the power voltage, and to generate a voltage output signal based on the voltage sensor signal, the power resistor shields the sensing resistor from noise or environmental temperature variation; and/or the sensor signal conversion circuit (390, 430, 440) is configured to utilize the power voltage to generate the voltage output signal when little or no current is present on the electric power line.
A surgical instrument (110, 210) comprising: (a) a body (122, 222); (b) a shaft assembly (130, 230) extending distally from the body (122, 222); (c) an end effector (140, 240) coupled with a distal end of the shaft assembly (130, 230), wherein the end effector (140, 240) is operable to manipulate tissue; (d) a transducer assembly (112, 212), wherein the transducer assembly (112, 212) is operable to convert electrical power into ultrasonic vibrations, wherein a distal end of the transducer assembly (112, 212) is configured to removably couple with a proximal end of the shaft assembly (130, 230); and (e) a loading assembly (150, 250), wherein the loading assembly (150, 250) comprises an actuator (152, 252) that is operable to couple the distal end of the transducer assembly (112, 212) with the proximal end of the shaft assembly (130, 230), characterized in that the loading assembly (150, 250) comprises a first spur gear (173, 276) and a second spur gear (174, 274), wherein the second spur gear (174, 274) has a larger diameter than the first spur gear (173, 276) and wherein the loading assembly (150, 250) comprises a first rack (156, 256) and a second rack (154, 254), wherein the first rack (156, 256) is configured to engage the first spur gear (173, 276) and the second rack (154, 254) is configured to engage the second spur gear (174, 274) such that the loading assembly (150, 250) is operable to drive the transducer assembly (112, 212) through at least two stages of rotation to couple the distal end of the transducer assembly (112, 212) with the proximal end of the shaft assembly (130, 230). (a) a body (122, 222); (b) a shaft assembly (130, 230) extending distally from the body (122, 222); (c) an end effector (140, 240) coupled with a distal end of the shaft assembly (130, 230), wherein the end effector (140, 240) is operable to manipulate tissue; (d) a transducer assembly (112, 212), wherein the transducer assembly (112, 212) is operable to convert electrical power into ultrasonic vibrations, wherein a distal end of the transducer assembly (112, 212) is configured to removably couple with a proximal end of the shaft assembly (130, 230); and (e) a loading assembly (150, 250), wherein the loading assembly (150, 250) comprises an actuator (152, 252) that is operable to couple the distal end of the transducer assembly (112, 212) with the proximal end of the shaft assembly (130, 230), characterized in that the loading assembly (150, 250) comprises a first spur gear (173, 276) and a second spur gear (174, 274), wherein the second spur gear (174, 274) has a larger diameter than the first spur gear (173, 276) and wherein the loading assembly (150, 250) comprises a first rack (156, 256) and a second rack (154, 254), wherein the first rack (156, 256) is configured to engage the first spur gear (173, 276) and the second rack (154, 254) is configured to engage the second spur gear (174, 274) such that the loading assembly (150, 250) is operable to drive the transducer assembly (112, 212) through at least two stages of rotation to couple the distal end of the transducer assembly (112, 212) with the proximal end of the shaft assembly (130, 230).
A filter module, comprising a perforated inner tube and a perforated outer tube concentrically surrounding the inner tube, said inner tube and outer tube forming an annular gap between each other, in which a filter membrane pleated into folds (11, 12, 13, 14) is arranged, wherein the folds (11, 12, 13, 14) divided into several fold types of differing fold height extend from their respective fold edges (111, 121, 131, 141) resting against the outer tube in the direction of the inner tube to their respective fold tips (114, 124, 134, 144) and are arranged as groups of folds (11, 12, 13, 14) of differing fold types along the circumference of the annular gap, characterized in that each group has a mating fold which extends from its mating fold edges resting against the inner tube in the direction of the outer tube to their mating fold tips and the fold height of which is less than or equal to the difference between the width of the annular gap and the fold height of the smallest fold height of the same group. a perforated inner tube and a perforated outer tube concentrically surrounding the inner tube, said inner tube and outer tube forming an annular gap between each other, in which a filter membrane pleated into folds (11, 12, 13, 14) is arranged, wherein the folds (11, 12, 13, 14) divided into several fold types of differing fold height extend from their respective fold edges (111, 121, 131, 141) resting against the outer tube in the direction of the inner tube to their respective fold tips (114, 124, 134, 144) and are arranged as groups of folds (11, 12, 13, 14) of differing fold types along the circumference of the annular gap, characterized in that each group has a mating fold which extends from its mating fold edges resting against the inner tube in the direction of the outer tube to their mating fold tips and the fold height of which is less than or equal to the difference between the width of the annular gap and the fold height of the smallest fold height of the same group.
A substrate suitable for incorporation into an absorbent article for monitoring and detecting the presence of wetness therein and/or risk of exudate leakage therefrom, said substrate comprising a conductive pattern disposed on a first surface capable of being arranged proximal to a body facing side of the absorbent article, wherein said conductive pattern can be brought in electrical communication with a clip-on data processing module, said conductive pattern comprising a plurality of connection tracks (1',2',3',4',5'); and a plurality of sensing tracks connected to said connection tracks (1',2',3',4',5'), characterized in that the conductive pattern is configured in a manner that addressing multiple combinations of said plurality of connection tracks (1',2',3',4',5') with corresponding terminals (1,2,3,4,5) of the clip-on data processing module result in multiple electrical circuit configurations for measuring resistance, impedance and/or capacitance therethrough, and wherein the conductive pattern comprises at least four connection tracks (1',2',3',4',5', 531, 700, 701, 702, 703) and/or sensing tracks (9, 520, 521, 522, 523, 524, 525, 526, 527, 710, 711, 712, 713) and wherein the sensing tracks are arranged so that a separate monitoring of at least three different zones along a lengthwise direction of the core of the absorbent article is possible.
A valve prosthesis support structure, comprising: a collapsible outer support structure having exactly three distal outer strut supports and exactly three proximal engagement arms, each engagement arm linking two distal outer strut supports, and each engagement arm having an upwardly concave shape so as to define respective peaks at junctures with the distal outer strut supports and respective troughs between each of respective peaks; and a collapsible inner support structure having exactly three distal inner strut supports extending from a proximal skirt, wherein the proximal skirt includes a flared distal portion, a narrowed throat portion, and a bulging proximal portion; wherein the outer support structure is sutured to the inner support structure at respective outer and inner strut supports, characterized in that each engagement arm is at a distance of about 0.5 mm to about 8 mm from the other respective engagement arms, and wherein the trough of each engagement arm is at a distance of about 1 mm to about 14 mm from the proximal skirt of the inner support structure. a collapsible outer support structure having exactly three distal outer strut supports and exactly three proximal engagement arms, each engagement arm linking two distal outer strut supports, and each engagement arm having an upwardly concave shape so as to define respective peaks at junctures with the distal outer strut supports and respective troughs between each of respective peaks; and a collapsible inner support structure having exactly three distal inner strut supports extending from a proximal skirt, wherein the proximal skirt includes a flared distal portion, a narrowed throat portion, and a bulging proximal portion; wherein the outer support structure is sutured to the inner support structure at respective outer and inner strut supports, characterized in that each engagement arm is at a distance of about 0.5 mm to about 8 mm from the other respective engagement arms, and wherein the trough of each engagement arm is at a distance of about 1 mm to about 14 mm from the proximal skirt of the inner support structure.
A collection device comprising: an acquisition unit configured to acquire user-generated content for a predetermined service in a predetermined period; a generation unit configured to generate a search query by using words that appear in the acquired user-generated content for the predetermined service and configured to calculate a degree of maliciousness of the search query as a ratio of the number of user-generated contents searched using the search query and determined to be malicious, to the number of user-generated contents searched using the search query and determined to be malicious or benign; and a collection unit configured to collect user-generated content generated in a plurality of services by using the generated search query, if the degree of maliciousness of the search query is larger than a threshold. an acquisition unit configured to acquire user-generated content for a predetermined service in a predetermined period; a generation unit configured to generate a search query by using words that appear in the acquired user-generated content for the predetermined service and configured to calculate a degree of maliciousness of the search query as a ratio of the number of user-generated contents searched using the search query and determined to be malicious, to the number of user-generated contents searched using the search query and determined to be malicious or benign; and a collection unit configured to collect user-generated content generated in a plurality of services by using the generated search query, if the degree of maliciousness of the search query is larger than a threshold.
A method executed on a computing device to provide a data caching policy of a server of a multiple tenant Enterprise Resource Planning, ERP, system, the method comprising: receiving the caching policy associated with a removal of cached items from a shared cache of the server; monitoring status of the cached items and a total consumed cache memory; in response to detecting the total consumed cache memory exceeding a predefined limit, removing one or more of the cached items from the shared cache based on the caching policy; ranking the cached items based on the caching policy evaluating attributes associated with the cached items including attributes of an associated tenant; characterized by: providing an application programming interface, API, to enable tenants to interact with the shared cache through a registration operation and parameterizing the registration operation by one of the cached items that has been added to the shared cache, and/or providing an application programming interface, API, to enable tenants to interact with the shared cache through a de-registration operation and parameterizing the de-registration operation by one of the cached items that has been removed from the shared cache. receiving the caching policy associated with a removal of cached items from a shared cache of the server; monitoring status of the cached items and a total consumed cache memory; in response to detecting the total consumed cache memory exceeding a predefined limit, removing one or more of the cached items from the shared cache based on the caching policy; ranking the cached items based on the caching policy evaluating attributes associated with the cached items including attributes of an associated tenant; characterized by: providing an application programming interface, API, to enable tenants to interact with the shared cache through a registration operation and parameterizing the registration operation by one of the cached items that has been added to the shared cache, and/or providing an application programming interface, API, to enable tenants to interact with the shared cache through a de-registration operation and parameterizing the de-registration operation by one of the cached items that has been removed from the shared cache. providing an application programming interface, API, to enable tenants to interact with the shared cache through a registration operation and parameterizing the registration operation by one of the cached items that has been added to the shared cache, and/or providing an application programming interface, API, to enable tenants to interact with the shared cache through a de-registration operation and parameterizing the de-registration operation by one of the cached items that has been removed from the shared cache.
Connection bush for radiator elements, able to mechanically and fluidically connect two radiator elements adjacent to each other, comprising - a bush body defining and delimiting, in correspondence with an internal lateral wall, a through-section of radiant liquid, - the bush body, presenting, on an external lateral wall, opposite the internal lateral wall, a pair of threadings for screwing the bush onto the associable radiator elements, wherein - the bush body is made in plastic material and comprises, in correspondence with said inner lateral wall, a number of teeth able to permit the grasping and rotation of the bush on the side of the internal lateral wall for clamping of the same between the radiator elements, wherein the teeth are made in one piece with the bush body characterizsed in that - the bush body comprises a core in metallic material, mechanically separate from the bush body and countersunk inside the body itself, wherein - said core comprises a cylindrical collar fitted with a number of holes able to form a bond between the bush body and the core countersunk inside it. - a bush body defining and delimiting, in correspondence with an internal lateral wall, a through-section of radiant liquid, - the bush body, presenting, on an external lateral wall, opposite the internal lateral wall, a pair of threadings for screwing the bush onto the associable radiator elements, wherein - the bush body is made in plastic material and comprises, in correspondence with said inner lateral wall, a number of teeth able to permit the grasping and rotation of the bush on the side of the internal lateral wall for clamping of the same between the radiator elements, - the bush body comprises a core in metallic material, mechanically separate from the bush body and countersunk inside the body itself, wherein - said core comprises a cylindrical collar fitted with a number of holes able to form a bond between the bush body and the core countersunk inside it.
A radio frequency clothes dryer comprising: an RF generator; a drying surface on which articles are supported for drying and comprising an RF applicator having an anode and a cathode coupled to the RF generator; characterized by further comprising a Faraday cage enclosing the drying surface, wherein at least a portion of the cathode encompasses the anode to electrically shield the anode from the Faraday cage ensuring the formation of an e-field between the anode and cathode instead of the anode and the Faraday cage upon the energizing of the RF generator and wherein the anode is spaced closer to the cathode than to the Faraday cage. an RF generator; a drying surface on which articles are supported for drying and comprising an RF applicator having an anode and a cathode coupled to the RF generator; characterized by further comprising a Faraday cage enclosing the drying surface, wherein at least a portion of the cathode encompasses the anode to electrically shield the anode from the Faraday cage ensuring the formation of an e-field between the anode and cathode instead of the anode and the Faraday cage upon the energizing of the RF generator and wherein the anode is spaced closer to the cathode than to the Faraday cage.
A method performed by a network node for handling a GTP tunnel failure in a radio communications network, the method comprising receiving a release message from a mobility management node for a wireless device associated with the network node, said release message comprising information identifying at least one E-UTRAN Radio Access Bearer, E-RAB, and information indicating that the release message was caused by a GPRS Tunneling Protocol, GTP, error indication; allocating one or more tunnel end-point identifiers, TEIDs, for the at least one E-RAB identified in the received release message; and transmitting a modification message to the mobility management node to modify the at least one E-RAB identified in the received release message, said modification message comprising the allocated one or more TEIDs for the at least one E-RAB.
A bipolar RF instrument comprising two instrument halves (1, 2), each consisting of an electrode-equipped, elongate instrument branch (8, 10), wherein the instrument branches (8, 10) are supported or are adapted to be supported such that they are movable relative to one another so as to be operated for moving to an open and a closed position, and of a handle unit (4, 6), each instrument branch (8, 10) having associated therewith a respective handle unit (4, 6) for manual operation of the instrument branches (8, 10) and for applying to the instrument branches (8, 10) a predetermined closing force at the closed position, characterized by an instrument-internal control switch, which is adapted to be inevitably automatically activated as a mounting monitoring means due to the assembly of the two instrument halves (1, 2), so that the instrument is brought into a final mounted operating state, so as to enable the supply of electric current from an energy source, preferably an external RF generator, to the two instrument branches (8, 10), wherein the control switch is positioned on the handle unit of said one instrument half, at a proximal instrument length position.