mhurhangee/patent-ind-claim-en huggingface dataset:
Fire extinguisher plant, in particular with a dry, multiple development network, outside the ground and fed by water, particularly suitable for installation on floors of large structures such as airports, train stations, marine terminals and subway stations, either wholly or partly underground, or other, wherein it comprises at least a primary fire extinguisher device suitable to be connected to a water supply network and provided with at least a water-relaunch pipe , and one or more secondary fire extinguisher devices each provided with at least one hydrant to supply a flow of water, and at least a dry water-relaunch pipe for connection to another of said secondary fire extinguisher devices , and in that said secondary fire extinguisher devices are able to be connected at least in sequence starting from said primary fire extinguisher device by means of said relaunch pipes , said pipe of said primary fire extinguisher device being configured to deliver water to the pipes of the secondary fire extinguisher devices starting from said primary fire extinguisher device and as far as the hydrant of at least one secondary fire extinguisher device nearest to a fire zone (Z).
A transport vessel for transporting a hyperpolarized substance, the transport vessel comprising: a vessel housing ; a chamber formed within the vessel housing that is configured to receive a container holding a hyperpolarized substance; an electromagnet configured to generate a magnetic containment field about the chamber when a current is supplied thereto, the magnetic containment field comprising a homogeneous magnetic field; a non-magnetic battery to supply the current to the electromagnet ; and a control circuit configured to selectively interrupt the supply of current to the electromagnet so as to control generation of the magnetic containment field; wherein the transport vessel is magnetically inert when the supply of current to the electromagnet is interrupted by the control circuit ; and wherein the control circuit comprises: a magnetic field sensor configured to detect a strength of an ambient magnetic field in an area in which the transport vessel is located; and a processor operably coupled to the magnetic field sensor so as to receive an input therefrom regarding the strength of the ambient magnetic field; and a magnetic field safety switch configured to interrupt the supply of current to the electromagnet ; wherein the processor is programmed to cause the magnetic field safety switch to open when the strength of the ambient magnetic field is greater than a threshold value, so as to interrupt the supply of current to the electromagnet . a vessel housing ; a chamber formed within the vessel housing that is configured to receive a container holding a hyperpolarized substance; an electromagnet configured to generate a magnetic containment field about the chamber when a current is supplied thereto, the magnetic containment field comprising a homogeneous magnetic field; a non-magnetic battery to supply the current to the electromagnet ; and a control circuit configured to selectively interrupt the supply of current to the electromagnet so as to control generation of the magnetic containment field; wherein the transport vessel is magnetically inert when the supply of current to the electromagnet is interrupted by the control circuit ; and wherein the control circuit comprises: a magnetic field sensor configured to detect a strength of an ambient magnetic field in an area in which the transport vessel is located; and a processor operably coupled to the magnetic field sensor so as to receive an input therefrom regarding the strength of the ambient magnetic field; and a magnetic field safety switch configured to interrupt the supply of current to the electromagnet ; a magnetic field sensor configured to detect a strength of an ambient magnetic field in an area in which the transport vessel is located; and a processor operably coupled to the magnetic field sensor so as to receive an input therefrom regarding the strength of the ambient magnetic field; and a magnetic field safety switch configured to interrupt the supply of current to the electromagnet ;
A racemic or optically enriched compound of Formula 1: wherein P is H or a protective group for hydroxyl groups selected from the group consisting of methoxymethyl, methoxythiomethyl, 2-methoxyethoxymethyl, bis(2-chloroethoxy)methyl, tetrahydropyranyl, tetrahydrothiopyranyl, 4-methoxytetrahydropyranyl, 4-methoxytetrahydrothiopyranyl, tetrahydrofuranyl, tetrahydrothiofuranyl, 1-ethoxyethyl, 1-methyl-1-methoxyethyl, triphenylmethyl, allyl, benzyl, substituted benzyl, and SiR a R b R c , wherein R a , R b and R c are each independently unsubstituted or substituted alkyl or unsubstituted or substituted aryl; and X is Cl, Br, I, or -CH 2 CH 2 CH 2 COOR 1 , wherein R 1 is C 1-7 -alkyl or C 7-11 -aralkyl.
A medical connector comprising: a connector body defining an interior space; and a membrane body having a first end having a convex surface and a second end with a sidewall extending between the first end and the second end of the membrane body , the sidewall defining an annular recess , the second end of the membrane body defining a cavity that extends toward the first end of the body, the annular recess configured to receive a portion of the connector body , wherein an inside corner of the annular recess is radiused, an annular projection extends away from the second end of the membrane body , and the cavity is tapered such that the cavity narrows as it extends toward the first end of the membrane body , and wherein the membrane body is secured to the connector body via an interference fit, and wherein a portion of the membrane body is received within the interior space of the connector body , wherein the connector body includes a projection extending into the interior space of the connector body , the projection of the connector body is received within the annular recess of the membrane body . a connector body defining an interior space; and a membrane body having a first end having a convex surface and a second end with a sidewall extending between the first end and the second end of the membrane body , the sidewall defining an annular recess , the second end of the membrane body defining a cavity that extends toward the first end of the body, the annular recess configured to receive a portion of the connector body , wherein an inside corner of the annular recess is radiused, an annular projection extends away from the second end of the membrane body , and the cavity is tapered such that the cavity narrows as it extends toward the first end of the membrane body , and wherein the membrane body is secured to the connector body via an interference fit, and wherein a portion of the membrane body is received within the interior space of the connector body , wherein the connector body includes a projection extending into the interior space of the connector body , the projection of the connector body is received within the annular recess of the membrane body .
A top feeding wicking apparatus for dispersing liquid through a plant growing medium , comprising: a geometrically shaped container of variable size having a bottom , an inner wall , and an outer wall forming a channel therearound the container for receiving liquid therethrough, the container having a center opening for receiving a plant and the bottom of the container having at least one hole for receiving liquid therethrough; a geometrically shaped lid of variable size having a top, an inner wall , and an outer wall forming a channel therearound from an underside of the lid , the lid having a center opening for receiving the plant and configured to be adjoined to the container , wherein at least one nozzle is disposed on the top of the lid for receiving liquid from a hose; and a geometrically shaped base layer and wicking layer of variable size each having an inner wall and an outer wall and a center opening for receiving the plant, the center opening of the base layer and the wicking layer each having a longitudinal opening extending therefrom to the outer wall to allow placement of the base layer and the wicking layer on the plant or to allow removal of the base layer and the wicking layer from the plant; wherein the container with lid is configured to set atop the base layer and the wicking layer such that liquid is dispersed through the plant growing medium . a geometrically shaped container of variable size having a bottom , an inner wall , and an outer wall forming a channel therearound the container for receiving liquid therethrough, the container having a center opening for receiving a plant and the bottom of the container having at least one hole for receiving liquid therethrough; a geometrically shaped lid of variable size having a top, an inner wall , and an outer wall forming a channel therearound from an underside of the lid , the lid having a center opening for receiving the plant and configured to be adjoined to the container , wherein at least one nozzle is disposed on the top of the lid for receiving liquid from a hose; and a geometrically shaped base layer and wicking layer of variable size each having an inner wall and an outer wall and a center opening for receiving the plant, the center opening of the base layer and the wicking layer each having a longitudinal opening extending therefrom to the outer wall to allow placement of the base layer and the wicking layer on the plant or to allow removal of the base layer and the wicking layer from the plant; wherein the container with lid is configured to set atop the base layer and the wicking layer such that liquid is dispersed through the plant growing medium .
A method for sharing a license resource between multiple Virtual Network Functions, VNF, with the method being applied to a license orchestrator, wherein the method comprises: grouping a plurality of VNF instances sharing the license resource into a VNF group; and performing at least one of: allocating and reallocating the license resource shared by the VNF group between the plurality of VNF instances in the VNF group; wherein the method further comprises: monitoring a current capacity of the each of the plurality of VNF instances in the VNF group, wherein the reallocating the license resource shared by the VNF group between the plurality of VNF instances in the VNF group comprises: allocating, if the current capacity of one of the VNF instances in the VNF group reaches an upper limit limited by the license resource thereof, a new license resource for the one of the VNF instances, wherein a new added part of the new license resource with respect to an original license resource is obtained from at least one of: an idle resource of the license resource shared by the VNF group, an idle part of a license resource of other VNF instances in the VNF group, and a new purchased license resource. grouping a plurality of VNF instances sharing the license resource into a VNF group; and performing at least one of: allocating and reallocating the license resource shared by the VNF group between the plurality of VNF instances in the VNF group; wherein the method further comprises: monitoring a current capacity of the each of the plurality of VNF instances in the VNF group, wherein the reallocating the license resource shared by the VNF group between the plurality of VNF instances in the VNF group comprises: allocating, if the current capacity of one of the VNF instances in the VNF group reaches an upper limit limited by the license resource thereof, a new license resource for the one of the VNF instances, monitoring a current capacity of the each of the plurality of VNF instances in the VNF group, wherein the reallocating the license resource shared by the VNF group between the plurality of VNF instances in the VNF group comprises: allocating, if the current capacity of one of the VNF instances in the VNF group reaches an upper limit limited by the license resource thereof, a new license resource for the one of the VNF instances, wherein a new added part of the new license resource with respect to an original license resource is obtained from at least one of: an idle resource of the license resource shared by the VNF group, an idle part of a license resource of other VNF instances in the VNF group, and a new purchased license resource.
Laminated pane with a functional element with electrically controllable optical properties, comprising: - a laminated stack sequence composed of an outer pane , a first intermediate layer , a second intermediate layer , and an inner pane , and - a functional element with electrically controllable optical properties, which functional element is arranged, at least in sections, between the first intermediate layer and the second intermediate layer , wherein at least one transparent body is arranged between the outer pane and the functional element and/or between the inner pane and the functional element in sections, wherein the transparent body has a transmittance in the visible light spectrum of more than 30%, the transparent body is arranged completely within the through-vision region of the functional element through the laminated pane , and wherein the transparent body contains a transparent fiber and/or a transparent layer applied by screen printing or 3D printing, wherein the area A of the transparent body is less than or equal to 50%, preferably less than or equal to 25%, and in particular less than or equal to 10% of the area of the functional element . - a laminated stack sequence composed of an outer pane , a first intermediate layer , a second intermediate layer , and an inner pane , and - a functional element with electrically controllable optical properties, which functional element is arranged, at least in sections, between the first intermediate layer and the second intermediate layer , wherein at least one transparent body is arranged between the outer pane and the functional element and/or between the inner pane and the functional element in sections, wherein the transparent body has a transmittance in the visible light spectrum of more than 30%, the transparent body is arranged completely within the through-vision region of the functional element through the laminated pane , and wherein the transparent body contains a transparent fiber and/or a transparent layer applied by screen printing or 3D printing, wherein the area A of the transparent body is less than or equal to 50%, preferably less than or equal to 25%, and in particular less than or equal to 10% of the area of the functional element .
A sensor unit for attaching to a vibrating body , the sensor unit comprising: a sheet sensor that has a sheet shape, the sheet sensor converting vibration that acts in a thickness direction of the sheet sensor to a voltage and outputting the voltage; and a first sticking member being attached to one surface of the sheet sensor , a second sticking member that is attached to another surface of the sheet sensor ; the first sticking member being sandwiched between the sheet sensor and the vibrating body ; the first sticking member comprises a base material and two adhesive layers , the base material having a sheet shape, the two adhesive layers being respectively provided on both surfaces of the base material , wherein the base material comprises foamed plastic and conforms to surface irregularities of an object when pressed against such an object, the sheet sensor being flexible; the sensor unit further comprises a weight that is attached to the second sticking member , the second sticking member being sandwiched between the weight and the sheet sensor ; characterized in that the second sticking member comprises a base material and two adhesive layers , the base material of the second sticking member having a sheet shape, the two adhesive layers of the second sticking member being respectively provided on both surfaces of the base material of the second sticking member and the base material comprises foamed plastic and conforms to surface irregularities of an object when pressed against such an object. a sheet sensor that has a sheet shape, the sheet sensor converting vibration that acts in a thickness direction of the sheet sensor to a voltage and outputting the voltage; and a first sticking member being attached to one surface of the sheet sensor , a second sticking member that is attached to another surface of the sheet sensor ; the first sticking member being sandwiched between the sheet sensor and the vibrating body ; the first sticking member comprises a base material and two adhesive layers , the base material having a sheet shape, the two adhesive layers being respectively provided on both surfaces of the base material , wherein the base material comprises foamed plastic and conforms to surface irregularities of an object when pressed against such an object, the sheet sensor being flexible; the sensor unit further comprises a weight that is attached to the second sticking member , the second sticking member being sandwiched between the weight and the sheet sensor ; characterized in that the second sticking member comprises a base material and two adhesive layers , the base material of the second sticking member having a sheet shape, the two adhesive layers of the second sticking member being respectively provided on both surfaces of the base material of the second sticking member and the base material comprises foamed plastic and conforms to surface irregularities of an object when pressed against such an object.
An adjustment-free air-curtain-type fume cabinet, comprising a cabinet body , an exhaust box , a window , an air curtain machine , a supplementary air duct , and an exhaust duct , wherein the exhaust box is mounted on the cabinet body , the exhaust box is provided with an opening , and both the exhaust duct and the supplementary air duct communicate with the exhaust box ; the window is slidably mounted to the cabinet body , and the window is reciprocatingly slidable relative to the cabinet body in a height direction of the cabinet body to change the height of the opening; the air curtain machine is mounted to the cabinet body , and the air curtain machine is configured to form an air wall at the opening to prevent an exchange of airflows inside and outside the exhaust box at the opening ; and the closable venturi valve is mounted on the exhaust duct , characterized in that the adjustment-free air-curtain-type fume cabinet comprises a closable venturi valve , wherein the closable venturi valve comprises a valve body , a rotary blade , a ball , a fixing holder , a fixed rod , and an elastic member, wherein the valve body has a flow channel , two ends of the flow channel in its length direction are an inlet port and an outlet port respectively, the inlet port communicates with an end of the exhaust duct remote from the exhaust box , the rotary blade is rotatably mounted in the valve body and is adjacent to the outlet port , and the flow channel is configured to be opened or closed when the rotary blade is rotated; the fixing holder is mounted in the valve body , the fixed rod is mounted to the fixing holder , the ball is slidably mounted on the fixed rod , position of one end of the elastic member is limited by the fixed rod , position of the other end of the elastic member is limited by the ball , and the elastic member allows the ball to have a tendency of sliding from the outlet port to the inlet port in a direction of a central axis of the valve body , wherein the adjustment-free air-curtain-type fume cabinet further comprises a pushing device located in the flow channel , wherein the pushing device comprises an upper pushing rod , a lower pushing rod , a torsion spring , and an elastic rest member, the upper pushing rod and the lower pushing rod are connected with each other by the torsion spring , the upper pushing rod and the lower pushing rod are located between the ball and the rotary blade , the lower pushing rod is slidably disposed on an inner wall of the valve body , the lower pushing rod and the valve body are connected by the elastic reset member, the elastic reset member allows the lower pushing rod to have a tendency of sliding close to the rotary blade in the direction of the central axis of the valve body , and the rotary blade rotates to drive the upper pushing rod to rotate relative to the lower pushing rod and simultaneously drive the lower pushing rod to slide relative to the valve body so that the lower pushing rod forces the ball to move toward the inlet port .
A variable vane assembly, comprising: a variable vane ; a trunnion arranged on one end of the variable vane ; a bushing mated to the trunnion to define an interface between the trunnion and the bushing ; and a surface modification on at least one of the trunnion and the bushing at the interface , whereby frictional heating at the interface during operation of the variable vane assembly is reduced, characterised in that the surface modification comprises an amorphous hydrogenated carbon coating. a variable vane ; a trunnion arranged on one end of the variable vane ; a bushing mated to the trunnion to define an interface between the trunnion and the bushing ; and a surface modification on at least one of the trunnion and the bushing at the interface , whereby frictional heating at the interface during operation of the variable vane assembly is reduced, characterised in that the surface modification comprises an amorphous hydrogenated carbon coating.
A blood coagulation system analyzer comprising: a blood measurement section configured to measure an impedance of a blood sample; and a blood analysis section configured to determine the degree of blood coagulation by comparing a blood coagulation time based on the impedance to a reference blood coagulation time defined so as to distinguish between a healthy subject and a subject with a medical condition, wherein during the blood coagulation time, the blood analysis section is configured to apply an alternating electric field of between 2MHz and 40MHz to the blood sample. a blood measurement section configured to measure an impedance of a blood sample; and a blood analysis section configured to determine the degree of blood coagulation by comparing a blood coagulation time based on the impedance to a reference blood coagulation time defined so as to distinguish between a healthy subject and a subject with a medical condition, wherein during the blood coagulation time, the blood analysis section is configured to apply an alternating electric field of between 2MHz and 40MHz to the blood sample.