mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a quartz glass laser lamp or quartz glass flash lamp containing electrodes at opposite ends within a tube of quartz glass, an end of said tube having an internal diameter, an external diameter and an annulus, wherein said method comprises formation of a glass to metal seal at said one end of the quartz glass tube comprising the following steps: the electrode or its electrical feed through is surrounded with a sealing glass comprising a sheath and a bead, the bead being bigger than the internal diameter of the end of the tube but not bigger than the external diameter of the end of the tube, heating the bead to a soft state while rotating it, inserting the bead into the annulus so as to form a seal, after the insertion, heating the seal so that the sealing glass wets on and fuses with said one end of the tube, both internally and to the end of the tube, after said fusing of the sealing glass with said quartz tube, applying an internal positive pressure while the sealing glass is molten causing the sealing glass inside the tube to move back towards the end of the tube so as to form an internal radius of sealing glass which is directly sealed between the electrode or its electric feed through and the tube of quartz glass. the electrode or its electrical feed through is surrounded with a sealing glass comprising a sheath and a bead, the bead being bigger than the internal diameter of the end of the tube but not bigger than the external diameter of the end of the tube, heating the bead to a soft state while rotating it, inserting the bead into the annulus so as to form a seal, after the insertion, heating the seal so that the sealing glass wets on and fuses with said one end of the tube, both internally and to the end of the tube, after said fusing of the sealing glass with said quartz tube, applying an internal positive pressure while the sealing glass is molten causing the sealing glass inside the tube to move back towards the end of the tube so as to form an internal radius of sealing glass which is directly sealed between the electrode or its electric feed through and the tube of quartz glass.
Domestic appliance with a door, comprising a front control panel arranged above the door, which conceals a holding chamber arranged therebehind for a domestic appliance component, which is designed as a tank for a fluid, which in the case of the domestic appliance also being designed for steam cooking is connected to a steam generator of the domestic appliance to the effect that the fluid located therein is evaporated and introduced into a cooking chamber of the domestic appliance, wherein the tank can be removed from the holding chamber, and comprising a movement mechanism having a motorised drive (22 to 25), which movement mechanism is designed to move the control panel in order to open and close the holding chamber, characterised in that the control panel is moved by the motorised drive (22 to 25) on a first partial travel path between two end positions of a total travel path, and is moved by a user on a second partial travel path between the two end positions of the total travel path, wherein the first partial travel path is apportioned between a closed position of the control panel and an intermediate position.
Expanded cylindrical thermoplastic elastomer beads provided with through-holes, the expanded thermoplastic elastomer beads comprising a core layer in a foamed state constituted of a base polymer containing a thermoplastic elastomer and a cover layer covering the core layer constituted of a thermoplastic polymer, wherein a coefficient of dynamic friction of the thermoplastic polymer that constitutes the cover layer is 0.8 or less, and a difference [(Tms) - (Tmc)] between a melting point (Tmc) of the base polymer that constitutes the core layer and a melting point (Tms) of the thermoplastic polymer that constitutes the cover layer is -20°C or more and 20°C or less, the coefficient of dynamic friction and the melting point being measured according to the method mentioned in the description. a coefficient of dynamic friction of the thermoplastic polymer that constitutes the cover layer is 0.8 or less, and a difference [(Tms) - (Tmc)] between a melting point (Tmc) of the base polymer that constitutes the core layer and a melting point (Tms) of the thermoplastic polymer that constitutes the cover layer is -20°C or more and 20°C or less, the coefficient of dynamic friction and the melting point being measured according to the method mentioned in the description.
A hail protection device for agricultural plantations of the type comprising nets, of which one longitudinal selvedge is attached to a metal wire which is tensioned along the upper ends of the individual support posts of a planting row, and the second longitudinal edge of the nets is stretched out by means of a row of thinner tension cords, wherein these are attached to a single actuating tension cord which is guided along the upper ends of the support posts of the adjacent planting row in such a way as to be movable (5b, 5c) in the longitudinal direction, characterized in that said thinner tension cords are deflected vertically upwards by the longitudinal movement (5b, 5c) of the actuating tension cords by means of eyelets or rollers which are provided at the upper ends of the individual support posts and by means of eyelets or rollers which are provided on a metal wire of the support structure at the upper end of the posts, in order then to be deflected by means of eyelets or rollers which are provided at a lower position on the same posts and by means of eyelets or rollers at a lower position, corresponding vertically to the abovementioned eyelets or rollers, on a horizontally tensioned metal wire in order to be attached by one of the ends to the longitudinal selvedge of the respective nets, and in that each of the nets, in the region of the upper ends of the support posts, can be gathered into a bundle by means of an actuating cord, wherein this cord is guided in a movable manner (5b, 5c) through eyelets or on rollers which are secured to the upper ends of the posts and has along its longitudinal extension a row of thinner, loop-shaped cords which loop around the net.
A transformer which is used to increase, decrease or regulate the voltage level in electrical energy systems, having a core as magnetic body, windings that change the electrical voltage, a tank holding the low-viscosity transformer oil together, a tank cover covering the tank and a commutator fixing the output voltage; characterized in that the commutator is positioned between the core and the side wall of the tank, at the upper yoke side of the core, and an insulating component is positioned between the upper yoke of the core and the commutator, which enables insulation between the commutator and the core.
A sandwich panel comprising a sandwich panel core having a top and bottom surface and made of low density and high density lamellae of mineral wool fibres arranged such that alternately low density lamellae and high density lamellae are provided; at least one outer sheet facing adhesively secured to at least one of the top or bottom surfaces of the panel core; characterised in that the outer sheet facing is adhesively secured by glue applied substantially only in stripes at the high density lamellae. a sandwich panel core having a top and bottom surface and made of low density and high density lamellae of mineral wool fibres arranged such that alternately low density lamellae and high density lamellae are provided; at least one outer sheet facing adhesively secured to at least one of the top or bottom surfaces of the panel core;
An airship, comprising: a ballonet disposed within the airship, wherein the ballonet comprises a ballonet surface; a system, comprising: one or more light emitters disposed within the ballonet at one or more fixed locations; and one or more light detectors disposed within the ballonet at the one or more fixed locations; wherein the system is configured to: measure a plurality of distances between one or more fixed locations and one or more locations on a surface of the ballonet; calculate differences between a predetermined set of expected distances and the plurality of measured distances, wherein the predetermined set of expected distances comprise distances from the one or more fixed locations and predetermined locations on the ballonet surface when the ballonet is full; and based on the calculated differences, calculate a volume of the ballonet, wherein the airship is configured to be operated at least based on the calculated volume of the ballonet; and a vehicle management system communicatively coupled to the system, wherein the vehicle management system is configured to control the operation of the airship using the calculated volume of the ballonet. a ballonet disposed within the airship, wherein the ballonet comprises a ballonet surface; a system, comprising: one or more light emitters disposed within the ballonet at one or more fixed locations; and one or more light detectors disposed within the ballonet at the one or more fixed locations; wherein the system is configured to: measure a plurality of distances between one or more fixed locations and one or more locations on a surface of the ballonet; calculate differences between a predetermined set of expected distances and the plurality of measured distances, wherein the predetermined set of expected distances comprise distances from the one or more fixed locations and predetermined locations on the ballonet surface when the ballonet is full; and based on the calculated differences, calculate a volume of the ballonet, wherein the airship is configured to be operated at least based on the calculated volume of the ballonet; and one or more light emitters disposed within the ballonet at one or more fixed locations; and one or more light detectors disposed within the ballonet at the one or more fixed locations; wherein the system is configured to: measure a plurality of distances between one or more fixed locations and one or more locations on a surface of the ballonet; calculate differences between a predetermined set of expected distances and the plurality of measured distances, wherein the predetermined set of expected distances comprise distances from the one or more fixed locations and predetermined locations on the ballonet surface when the ballonet is full; and based on the calculated differences, calculate a volume of the ballonet, wherein the airship is configured to be operated at least based on the calculated volume of the ballonet; and
Ski boot comprising an outer shell and an internal comfort liner, said liner having a front opening and a movable tongue which is fixed at the level of its lower end to the forefoot area of the liner thanks to removable attachment means and which ensures the closure of said front opening; characterized in that the tongue consists of a rigid portion, which is integral with said removable attachment means and a flexible portion, said rigid portions and flexible being independent of each other; the flexible portion of said tongue comprising a rear face intended to come into contact with the foot of a user and a front face; said front face comprising a first opening allowing said rigid portion to be placed and removed in an interior housing provided between said rear face and said front face, as well as a second opening through which said removable attachment means can pass when the rigid portion is in place in the interior housing.
A portable vibration and heat generation apparatus comprising a control unit housing electronic circuitry (402, 420) and at least one battery, a plurality of vibration pods electrically connected to the control unit and a heat generation unit electrically connected to the control unit, characterised by a bag-like enclosure attached to and extending distally from a bottom surface of a flexible support platform such that a distal wall of said bag-like enclosure is disposed opposite and spaced apart from said bottom surface of said flexible support platform so that the bag-like enclosure forms a cavity between said bottom surface of said flexible support platform and said distal wall, and in that the control unit is a cylindrical control unit having a circular cross-section that is mounted to a central portion of a top surface of the flexible support platform that is disposed opposite said bottom surface, extends perpendicularly from said top surface of the flexible support platform in a first direction that is away from said top surface and said bag-like enclosure and has a diameter of between 50 millimetres and 100 millimetres, said plurality of vibration pods is attached to the flexible support platform with each vibration pod extending from the flexible support platform in a second direction that is opposite the first direction such that said vibration pods extend inwardly into said cavity from said from said flexible support platform, and said heat generation unit is positioned within said cavity below the plurality of vibration pods adjacent to said distal wall so as to be disposed between the plurality of vibration pods and said distal wall. characterised by a bag-like enclosure attached to and extending distally from a bottom surface of a flexible support platform such that a distal wall of said bag-like enclosure is disposed opposite and spaced apart from said bottom surface of said flexible support platform so that the bag-like enclosure forms a cavity between said bottom surface of said flexible support platform and said distal wall, and in that the control unit is a cylindrical control unit having a circular cross-section that is mounted to a central portion of a top surface of the flexible support platform that is disposed opposite said bottom surface, extends perpendicularly from said top surface of the flexible support platform in a first direction that is away from said top surface and said bag-like enclosure and has a diameter of between 50 millimetres and 100 millimetres, said plurality of vibration pods is attached to the flexible support platform with each vibration pod extending from the flexible support platform in a second direction that is opposite the first direction such that said vibration pods extend inwardly into said cavity from said from said flexible support platform, and said heat generation unit is positioned within said cavity below the plurality of vibration pods adjacent to said distal wall so as to be disposed between the plurality of vibration pods and said distal wall.
An apparatus comprising: a network element, NE, configured to: receive an Internet Group Management Protocol, IGMP, data packet in Internet Protocol version four, IPv4, format; translate the IGMP data packet into a Multicast Listener Discovery, MLD, data packet in Internet Protocol version six, IPv6, format; and forward the translated data packet, characterized in that the IGMP data packet comprises a source address, the NE comprises an upstream interface, a translator positioned on the upstream interface and a proxy positioned downstream of the translator, and wherein translating the IGMP data packet comprises setting the source address to a link-local IPv6 address assigned to the upstream interface. receive an Internet Group Management Protocol, IGMP, data packet in Internet Protocol version four, IPv4, format; translate the IGMP data packet into a Multicast Listener Discovery, MLD, data packet in Internet Protocol version six, IPv6, format; and forward the translated data packet, characterized in that the IGMP data packet comprises a source address, the NE comprises an upstream interface, a translator positioned on the upstream interface and a proxy positioned downstream of the translator, and
A communication apparatus which is capable of communicating based on a first communication system via a power line, which provides an alternating current, wherein another communication apparatus is communicating based on a second communication system via the power line, comprising: an integrated circuit; a housing which is adapted for including the integrated circuit; an indicator provided on a front plane of the housing; wherein the integrated circuit is characterized by comprising: a transmitter (11B1, 11B2, 31B, 42D) which is adapted for transmitting a first notice (ΦA) within a first notification domain in a first communication cycle; a detector (11B1, 11B2, 31B, 42D) which is adapted for detecting a second notice (ΦB) transmitted from the another communication apparatus within a second notification domain in a second communication cycle after the first communication cycle; wherein the transmitter (11B1, 11B2, 31B, 42D) is adapted for transmitting a data signal in a data transmission domain of the second communication cycle or a third communication cycle after the second communication cycle, wherein the data transmission domain is allocated to the first communication system on the basis of the first notice (ΦA) and the second notice (ΦB). an integrated circuit; a housing which is adapted for including the integrated circuit; an indicator provided on a front plane of the housing; wherein the integrated circuit is characterized by comprising: a transmitter (11B1, 11B2, 31B, 42D) which is adapted for transmitting a first notice (ΦA) within a first notification domain in a first communication cycle; a detector (11B1, 11B2, 31B, 42D) which is adapted for detecting a second notice (ΦB) transmitted from the another communication apparatus within a second notification domain in a second communication cycle after the first communication cycle; wherein the transmitter (11B1, 11B2, 31B, 42D) is adapted for transmitting a data signal in a data transmission domain of the second communication cycle or a third communication cycle after the second communication cycle, wherein the data transmission domain is allocated to the first communication system on the basis of the first notice (ΦA) and the second notice (ΦB). a transmitter (11B1, 11B2, 31B, 42D) which is adapted for transmitting a first notice (ΦA) within a first notification domain in a first communication cycle; a detector (11B1, 11B2, 31B, 42D) which is adapted for detecting a second notice (ΦB) transmitted from the another communication apparatus within a second notification domain in a second communication cycle after the first communication cycle; wherein the transmitter (11B1, 11B2, 31B, 42D) is adapted for transmitting a data signal in a data transmission domain of the second communication cycle or a third communication cycle after the second communication cycle, wherein the data transmission domain is allocated to the first communication system on the basis of the first notice (ΦA) and the second notice (ΦB).
A semiconductor light emitting element comprising: a light emitting layer for emitting light; and a substrate transparent to the light emitted from the light emitting layer, and having: a top surface on which the light emitting layer is formed; a bottom surface opposed to the top surface; and side surfaces connecting the top surface and the bottom surface, wherein each of the side surfaces is composed of a first side surface portion extending from the top surface toward the bottom surface, a second side surface portion extending from the first side surface portion toward the bottom surface, and a third side surface portion extending from the second side surface portion toward the bottom surface, wherein the third side surface portions incline from the direction vertical to the top surface to widen from the bottom surface toward the top surface, and wherein the first side surface portions incline from the direction vertical to the top surface to narrow from the second side surface portions toward the top surface by an angle equal to or larger than 16° and equal to or smaller than 60°, characterised in that, the second side surface portions incline from the direction vertical to the top surface to widen further from the third side surface portions toward the top surface to extract a part of the light from the light emitting layer externally. a light emitting layer for emitting light; and a substrate transparent to the light emitted from the light emitting layer, and having: a top surface on which the light emitting layer is formed; a bottom surface opposed to the top surface; and side surfaces connecting the top surface and the bottom surface, a top surface on which the light emitting layer is formed; a bottom surface opposed to the top surface; and side surfaces connecting the top surface and the bottom surface, wherein each of the side surfaces is composed of a first side surface portion extending from the top surface toward the bottom surface, a second side surface portion extending from the first side surface portion toward the bottom surface, and a third side surface portion extending from the second side surface portion toward the bottom surface, wherein the third side surface portions incline from the direction vertical to the top surface to widen from the bottom surface toward the top surface, and wherein the first side surface portions incline from the direction vertical to the top surface to narrow from the second side surface portions toward the top surface by an angle equal to or larger than 16° and equal to or smaller than 60°, characterised in that, the second side surface portions incline from the direction vertical to the top surface to widen further from the third side surface portions toward the top surface to extract a part of the light from the light emitting layer externally.
A control method of an electronic device for performing joint transmission, the method comprising: searching for access points, APs, to retrieve a plurality of APs; determining a modulation and coding scheme, MCS, for data transmission based on a signal strength of at least two APs among the plurality of APs; determining the at least two APs as candidate APs for joint transmission by comparing a joint transmission gain time according to the determined MCS and a synchronization time for the at least two APs to perform joint transmission, wherein the joint transmission gain time is calculated by calculating a difference between a first data reception time at which a predetermined size of data is received based on the determined MCS and a second data reception time at which the predetermined size of data is received from an AP having a strongest signal strength, and the synchronization time is identified based on a difference in time at which data is received from the at least two APs; transmitting information about the candidate APs to an AP control device; and performing data communication with joint APs, which are determined to perform joint transmission by the AP control device, among the candidate APs. searching for access points, APs, to retrieve a plurality of APs; determining a modulation and coding scheme, MCS, for data transmission based on a signal strength of at least two APs among the plurality of APs; determining the at least two APs as candidate APs for joint transmission by comparing a joint transmission gain time according to the determined MCS and a synchronization time for the at least two APs to perform joint transmission, wherein the joint transmission gain time is calculated by calculating a difference between a first data reception time at which a predetermined size of data is received based on the determined MCS and a second data reception time at which the predetermined size of data is received from an AP having a strongest signal strength, and the synchronization time is identified based on a difference in time at which data is received from the at least two APs; transmitting information about the candidate APs to an AP control device; and performing data communication with joint APs, which are determined to perform joint transmission by the AP control device, among the candidate APs.