mhurhangee/ep-ind-claims huggingface dataset:
A closure system for bottles adapted to be applied to a bottle neck, said closure system comprising; a cap having flat top portion and a tubular side portion provided with a threaded inner surface, a pourer suitable for engaging with the neck of a bottle at one end, said pourer having outer threads at its other end for connection with said threaded inner surface of the cap, an outer sleeve which circumferentially covers the outer periphery of the closure system and which is divided into an upper sleeve and a lower sleeve separated by a breaking line, means for providing an irreversible gap, upon first opening of the cap, in between said upper and lower sleeves (30, 31) in the longitudinal direction of a bottle characterized in that, the closure system further comprises an indicator ring covered annularly partly behind the lower sleeve and partly behind the upper sleeve in the longitudinal direction of a bottle, said indicator ring being attached to the pourer and being separate from said tubular side portion of the cap (40, wherein said means for providing an irreversible gap comprises; an abutment groove located annularly around the pourer, a plurality of flaps which are attached to the top portion of said cap and which are pushed inwardly under the peripheral pressure of the upper sleeve in the radial direction of the cap, a plurality of abutment arms under radial pressure of said plurality of flaps, said abutment arms being able to take up a first position in which said abutmernt arms do not interfere with the abutment groove and upon the cap is opened for the first time, a second security position in which the abutment arms about against said abutment groove such that a gap is formed in the longitudinal direction in between the neighboring circumferential edges of the upper and lower sleeves (30, 31) when the cap is re-closed.
A silicon-based molten composition used in a solution growing method for forming silicon carbide single crystal, including silicon (Si), yttrium, and iron (Fe), and as expressed in Formula 1: [Formula 1] Si a Y b Fe c wherein, in Formula 1, the a is equal to 0.6, the b is equal to or greater than 0.2 and equal to or less than 0.3, and the c is equal to or greater than 0.1 and equal to or less than 0.2.
A method for irradiating a target volume which does not belong to a human or animal body, using an ion beam (16, 18); wherein the irradiation of the target volume is subdivided in time into at least one radiography phase and at least one deposition phase; wherein the energy of the ion beam (16, 18) is altered over time between the at least one radiography phase and the at least one deposition phase such that i) in the at least one radiography phase, the range of the ion beam (16, 18) is distal with respect to the target volume, so that the ion beam (16, 18) passes through the target volume, and wherein the ion beam (16, 18) is used to capture an ion radiograph of the target volume by detecting the ion beam (16, 18) using an ion radiography detector that is disposed distal with respect to the target volume; and ii) in the at least one deposition phase, the range of the ion beam (16, 18) is within the target volume, so that the ion beam (16, 18) is stopped in the target volume to deposit a predetermined dose in the target volume; wherein in the at least one or the plurality of radiography phases, a laterally two-dimensionally spatially resolved ion radiograph is acquired by having the ion beam passing through a multitude of grid points of the target volume and the range of after passing it through a multitude of grid points of the target volume and determining the range of the ion beam after it has passed through the target volume for each of the grid points in the ion radiograph; and creating an at least two-dimensional map of the range of the ion beam. i) in the at least one radiography phase, the range of the ion beam (16, 18) is distal with respect to the target volume, so that the ion beam (16, 18) passes through the target volume, and wherein the ion beam (16, 18) is used to capture an ion radiograph of the target volume by detecting the ion beam (16, 18) using an ion radiography detector that is disposed distal with respect to the target volume; and ii) in the at least one deposition phase, the range of the ion beam (16, 18) is within the target volume, so that the ion beam (16, 18) is stopped in the target volume to deposit a predetermined dose in the target volume; wherein in the at least one or the plurality of radiography phases, a laterally two-dimensionally spatially resolved ion radiograph is acquired by having the ion beam passing through a multitude of grid points of the target volume and the range of after passing it through a multitude of grid points of the target volume and determining the range of the ion beam after it has passed through the target volume for each of the grid points in the ion radiograph; and creating an at least two-dimensional map of the range of the ion beam.
An adapter configured to be connected to a vehicle, the vehicle being configured to perform external charging to charge a power storage device mounted therein with electric power supplied from an external power supply via a charging cable, wherein the adapter is further configured to receive electric power from a power generation device (150; 120, 140) mounted in the vehicle and supply the received electric power to electrical equipment that is external to the vehicle, the adapter comprising: a first connection portion (801, 811) that corresponds in geometry to an inlet provided with the vehicle, the charging cable and the first connection portion are connectable to the inlet; a second connection portion (805, 812) that is electrically connected to the first connection portion, wherein the second connection portion (805, 812) corresponds in geometry to a power supply plug of the electrical equipment, the power supply plug is connectable with the second connection portion; and a connection sensing circuit configured to provide a connection signal indicating that the adapter has been connected to the inlet and set the connection signal potential to a potential that is different from the potential applied when the connector of the charging cable is connected to the inlet, wherein the adapter is configured to transmit a power supply instruction signal to the vehicle, the power supply instruction being indicative of an instruction to supply electric power to the electrical equipment, the adapter is characterized in that it is configured to transmit the power supply instruction signal by utilizing a path that is configured to transmit the connection signal indicating that a connector of the charging cable is connected to the inlet. a first connection portion (801, 811) that corresponds in geometry to an inlet provided with the vehicle, the charging cable and the first connection portion are connectable to the inlet; a second connection portion (805, 812) that is electrically connected to the first connection portion, wherein the second connection portion (805, 812) corresponds in geometry to a power supply plug of the electrical equipment, the power supply plug is connectable with the second connection portion; and a connection sensing circuit configured to provide a connection signal indicating that the adapter has been connected to the inlet and set the connection signal potential to a potential that is different from the potential applied when the connector of the charging cable is connected to the inlet, wherein the adapter is configured to transmit a power supply instruction signal to the vehicle, the power supply instruction being indicative of an instruction to supply electric power to the electrical equipment, the adapter is characterized in that it is configured to transmit the power supply instruction signal by utilizing a path that is configured to transmit the connection signal indicating that a connector of the charging cable is connected to the inlet.
A method of measuring a nozzle deflection, comprising: rotating a nozzle; inserting a spout of the nozzle into a container through an opening of the container; ejecting liquid from the nozzle inside the container; and measuring a nozzle deflection outside the container while the nozzle is rotating and ejecting the liquid. rotating a nozzle; inserting a spout of the nozzle into a container through an opening of the container; ejecting liquid from the nozzle inside the container; and measuring a nozzle deflection outside the container while the nozzle is rotating and ejecting the liquid.
A surgical end effector, comprising: a first jaw; a second jaw comprising a closure surface and an opening surface; a pivot joint, wherein said second jaw is configured to pivot relative to said first jaw at said pivot joint; a firing member configured to move distally from a home position during a firing stroke, wherein said firing member comprises: a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring. a first jaw; a second jaw comprising a closure surface and an opening surface; a pivot joint, wherein said second jaw is configured to pivot relative to said first jaw at said pivot joint; a firing member configured to move distally from a home position during a firing stroke, wherein said firing member comprises: a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring. a first flange positioned to engage said first jaw; and a second flange positioned to engage said second jaw, wherein said second flange is configured to engage said closure surface to pivot said second jaw toward a closed position when said firing member is moved distally from the home position, and wherein said second flange is configured to engage said opening surface to pivot said second jaw toward an open position when said firing member is moved proximally from said home position; and characterised in that the end effector further comprises a spring positioned to operably engage the firing member and configured to bias said second jaw away from said first jaw when said firing member is in the home position and in operable engagement with the spring.
Seat system for a motor vehicle, comprising at least one vehicle seat which can be adjusted between a first position in the forward direction of travel of the motor vehicle and a second position counter to the forward direction of travel of the motor vehicle, and comprising a safety belt device which is provided for securing an occupant seated in the vehicle seat in the first and the second position (S1, S2), characterized in that the safety belt device for the first and the second position (S1, S2) of the vehicle seat comprises a respective belt system (11, 12) which is held at corresponding holding points (17, 18; 19, 20) on the motor vehicle bodyshell.
Protective film removing device having a first removing station for detaching a protective film from a first lens surface of an optical lens, - with a lens holder, o wherein the lens holder has an imaginary central axis which is aligned transversely to the first lens surface when the optical lens is mounted, - with at least one fluid nozzle (20, 25) with a nozzle outlet channel (21, 26), and - with a pivot bearing between the lens holder and the fluid nozzle(s) (20, 25), o wherein the pivot bearing is designed such that a relative movement about the central axis can be executed with the fluid nozzle or nozzles (20, 25), wherein the nozzle outlet channel (21, 26) of the fluid nozzles (20, 25) is aligned inwards in each case, characterized in that - a lifting device is formed between the lens holder and the fluid nozzle or nozzles (20, 25) in such a way that a movement relative to the lens holder can be carried out with the fluid nozzle or nozzles, which movement is aligned along the central axis. - with a lens holder, o wherein the lens holder has an imaginary central axis which is aligned transversely to the first lens surface when the optical lens is mounted, o wherein the lens holder has an imaginary central axis which is aligned transversely to the first lens surface when the optical lens is mounted, - with at least one fluid nozzle (20, 25) with a nozzle outlet channel (21, 26), and - with a pivot bearing between the lens holder and the fluid nozzle(s) (20, 25), o wherein the pivot bearing is designed such that a relative movement about the central axis can be executed with the fluid nozzle or nozzles (20, 25), wherein the nozzle outlet channel (21, 26) of the fluid nozzles (20, 25) is aligned inwards in each case, o wherein the pivot bearing is designed such that a relative movement about the central axis can be executed with the fluid nozzle or nozzles (20, 25), wherein the nozzle outlet channel (21, 26) of the fluid nozzles (20, 25) is aligned inwards in each case, - a lifting device is formed between the lens holder and the fluid nozzle or nozzles (20, 25) in such a way that a movement relative to the lens holder can be carried out with the fluid nozzle or nozzles, which movement is aligned along the central axis.
An apparatus for capping a container, comprising: - a conveying device for conveying the container along a path; - a group of applying heads for applying a lid onto a neck included in an opening device of the container; - a plurality of welding head arranged downstream of the applying heads, each welding head comprising a welding element for welding the lid to the opening device, characterized in that the applying heads are movable synchronously with the conveying device along a portion of said path, so as to apply the lid to the neck while being coupled to the neck along said portion of said path, the welding heads are movable synchronously with the conveying device along a part of said path, so as to weld the lid to the opening device while being coupled to the lid along said part of said path, a movement device is provided for moving the group of applying heads and the welding heads are moved by the same movement device that also displaces the applying heads, the conveying device comprises a linear conveyor for advancing the container along an advancement direction, the applying heads are movable forwards and backwards along the advancement direction and the welding heads are movable forwards and backwards along the advancement direction. - a conveying device for conveying the container along a path; - a group of applying heads for applying a lid onto a neck included in an opening device of the container; - a plurality of welding head arranged downstream of the applying heads, each welding head comprising a welding element for welding the lid to the opening device, characterized in that the applying heads are movable synchronously with the conveying device along a portion of said path, so as to apply the lid to the neck while being coupled to the neck along said portion of said path, the welding heads are movable synchronously with the conveying device along a part of said path, so as to weld the lid to the opening device while being coupled to the lid along said part of said path, a movement device is provided for moving the group of applying heads and the welding heads are moved by the same movement device that also displaces the applying heads, the conveying device comprises a linear conveyor for advancing the container along an advancement direction, the applying heads are movable forwards and backwards along the advancement direction and the welding heads are movable forwards and backwards along the advancement direction.
A process for preparing a polymer material filled composite element, comprising the steps of: i) providing a partially closed space, wherein a polyurethane foam is disposed at least at part of the periphery of the space to restrain the flow of a polymer material resin, and the polyurethane foam is formed by in situ application of a polyurethane composition and has an air flow value of greater than 1L/min as determined by ASTM D3574 test; ii) applying the polymer material resin into the space and curing the polymer material resin to form a polymer material that fills the space; wherein the polyurethane composition comprises: A) an isocyanate component comprising one or more organic polyisocyanates; B) an isocyanate-reactive component comprising: b1) one or more polyether polyols having a hydroxyl value of 10 to 500 mg KOH/g and a functionality of 2-6; and b2) one or more foaming agents. i) providing a partially closed space, wherein a polyurethane foam is disposed at least at part of the periphery of the space to restrain the flow of a polymer material resin, and the polyurethane foam is formed by in situ application of a polyurethane composition and has an air flow value of greater than 1L/min as determined by ASTM D3574 test; ii) applying the polymer material resin into the space and curing the polymer material resin to form a polymer material that fills the space; A) an isocyanate component comprising one or more organic polyisocyanates; B) an isocyanate-reactive component comprising: b1) one or more polyether polyols having a hydroxyl value of 10 to 500 mg KOH/g and a functionality of 2-6; and b2) one or more foaming agents. b1) one or more polyether polyols having a hydroxyl value of 10 to 500 mg KOH/g and a functionality of 2-6; and b2) one or more foaming agents.
An access control method performed by a service router in a virtual extensible local area network, VXLAN, including an access device and the service router, wherein a user equipment connects to the access device, the access device connects to the service router and wherein the service router connects to an authentication server, the method comprising the steps of: receiving, by the service router, a VXLAN request packet sent by the access device, wherein the VXLAN request packet is obtained by encapsulating an Internet Protocol, IP, request packet sent by a user through the user equipment, and the VXLAN request packet comprises an IP address of the access device in a VXLAN header and authentication information of the user; parsing, by the service router, the VXLAN request packet to obtain the IP address of the access device and the authentication information of the user; sending, by the service router, the IP address of the access device and the authentication information of the user to the authentication server, so that the authentication server authenticates the user based on an authentication rule pre-configured in the authentication server, wherein the authentication rule comprises the IP address of the access device and the authentication information of the user; receiving, by the service router, an authentication result sent by the authentication server; and, controlling, by the service router, the user according to the authentication result., receiving, by the service router, a VXLAN request packet sent by the access device, wherein the VXLAN request packet is obtained by encapsulating an Internet Protocol, IP, request packet sent by a user through the user equipment, and the VXLAN request packet comprises an IP address of the access device in a VXLAN header and authentication information of the user; parsing, by the service router, the VXLAN request packet to obtain the IP address of the access device and the authentication information of the user; sending, by the service router, the IP address of the access device and the authentication information of the user to the authentication server, so that the authentication server authenticates the user based on an authentication rule pre-configured in the authentication server, wherein the authentication rule comprises the IP address of the access device and the authentication information of the user; receiving, by the service router, an authentication result sent by the authentication server; and, controlling, by the service router, the user according to the authentication result.,
A vacuum variable capacitor adjustable between a minimum capacitance value and a maximum capacitance value, the vacuum variable capacitor comprising: a first vacuum enclosure containing capacitor electrodes (6, 7) separated by a vacuum dielectric, the wall of the first vacuum enclosure comprising a first deformable region, hereafter referred to as first bellows, for transferring mechanical movement between a drive means (9, 14, 15, 28, 29, 34) disposed outside the first vacuum enclosure and a mobile one of the capacitor electrodes (6, 7) inside the first vacuum enclosure, a second enclosure, referred to hereafter as the pre-vacuum enclosure, containing a gas at a predetermined pressure, the pre-vacuum enclosure being arranged such that the first bellows separates the gas in the pre-vacuum enclosure from the vacuum dielectric in the first vacuum enclosure the vacuum variable capacitor being characterised by a second vacuum enclosure comprising a second deformable wall region, referred to hereafter as second bellows, separating the second vacuum enclosure from the pre-vacuum enclosure, wherein the first bellows is mechanically linked to the second bellows. a first vacuum enclosure containing capacitor electrodes (6, 7) separated by a vacuum dielectric, the wall of the first vacuum enclosure comprising a first deformable region, hereafter referred to as first bellows, for transferring mechanical movement between a drive means (9, 14, 15, 28, 29, 34) disposed outside the first vacuum enclosure and a mobile one of the capacitor electrodes (6, 7) inside the first vacuum enclosure, a second enclosure, referred to hereafter as the pre-vacuum enclosure, containing a gas at a predetermined pressure, the pre-vacuum enclosure being arranged such that the first bellows separates the gas in the pre-vacuum enclosure from the vacuum dielectric in the first vacuum enclosure the vacuum variable capacitor being characterised by a second vacuum enclosure comprising a second deformable wall region, referred to hereafter as second bellows, separating the second vacuum enclosure from the pre-vacuum enclosure, wherein the first bellows is mechanically linked to the second bellows.
Storage device for an emergency kit in an aircraft, having a housing, having a rail device, wherein the rail device is arranged in the housing, and having a drawer for receiving the emergency kit, wherein the drawer is arranged so as to be movable on the rail device in a pull-out direction, and wherein the housing has a main portion and a covering portion, wherein the rail device is connected to the main portion such that they form a premounting assembly, and wherein the covering portion is fastened to the premounting assembly, wherein the drawer has a faceplate and a drawer body connected thereto, characterized in that the faceplate closes off the housing on an end side, and the faceplate engages around at least one free edge region of the housing.