mhurhangee/ep-ind-claims huggingface dataset:
A thermal-insulated multi-walled pipe for superconducting power transmission, comprising: a superconducting cable; and a multi-walled pipe that houses the superconducting cable, wherein the multi-walled pipe is composed of a plurality of straight pipes, at least one of the plurality of straight pipes has, at a surface thereof, a coating layer characterized in that the coating layer contains a metal powder, and a content of the metal powder in the coating layer is 70 mass% to 98 mass%. a superconducting cable; and a multi-walled pipe that houses the superconducting cable, wherein the multi-walled pipe is composed of a plurality of straight pipes, at least one of the plurality of straight pipes has, at a surface thereof, a coating layer characterized in that the coating layer contains a metal powder, and a content of the metal powder in the coating layer is 70 mass% to 98 mass%.
Method for controlling traffic in a telecommunications network, comprising a first step of detecting a breakdown affecting a node or a link of said network, characterized in that the following second step is then implemented: - the nodes immediately adjacent to said node/link that experienced the breakdown, located between the node/link that experienced the breakdown and the users (10, 11) of the network, transmit, to the node/link that experienced the breakdown, the registration requests originating from the users (10, 11) of the network as long as the rate of these registration requests is below a predetermined clipping threshold, which is set by the operator of the network and is associated with the registration requests; - if the rate of registration requests exceeds said clipping threshold, the nodes immediately adjacent to said node/link that experienced the breakdown, located between the node/link that experienced the breakdown and the users (10, 11) of the network, do not transmit the surplus requests to the node/link that experienced the breakdown, and send, to the users (10, 11) having transmitted a request that is thus refused, a response instructing these users (10, 11) to observe a time delay period before re-attempting to register, said response specifying the recommended duration for this time delay period. - the nodes immediately adjacent to said node/link that experienced the breakdown, located between the node/link that experienced the breakdown and the users (10, 11) of the network, transmit, to the node/link that experienced the breakdown, the registration requests originating from the users (10, 11) of the network as long as the rate of these registration requests is below a predetermined clipping threshold, which is set by the operator of the network and is associated with the registration requests; - if the rate of registration requests exceeds said clipping threshold, the nodes immediately adjacent to said node/link that experienced the breakdown, located between the node/link that experienced the breakdown and the users (10, 11) of the network, do not transmit the surplus requests to the node/link that experienced the breakdown, and send, to the users (10, 11) having transmitted a request that is thus refused, a response instructing these users (10, 11) to observe a time delay period before re-attempting to register, said response specifying the recommended duration for this time delay period.
Method for adjusting the zero point of a torque sensor on a manipulator (1, 1a), which has a plurality of links connected by joints, wherein at least one joint, which can be moved by means of a drive, rotatably connects a first link (9, 2.4) of the manipulator (1, 1a) to a second link (10, 2.5) of the manipulator (1, 1a) and at least one torque sensor is coupled to said joint, which torque sensor supplies at least one torque-dependent measurement, comprising the following steps: - supporting the first link (9, 2.4) and the second link (10, 2.5) in a locally stable state, in which at least both said links are supported such that a joint arranged between said links adopts a torque-free position; - drivelessly switching at least the drive of the particular joint to which the torque sensor to be adjusted is coupled; - opening a possibly provided, closed brake of the particular joint to which the torque sensor to be adjusted is coupled; - subsequently recording the torque-dependent measurement of the torque sensor to be adjusted as a reference value of a torque-free state of the joint, characterised in that the support of the first link (9, 2.4) and the second link (10, 2.5) in a locally stable state is performed in that the particular joint to which the torque sensor to be adjusted is coupled is set to be torque-free by a rigid holding device bridging the joint, or in that at least the first link (9, 2.4) and the second link (10, 2.5) are placed on a platform. - supporting the first link (9, 2.4) and the second link (10, 2.5) in a locally stable state, in which at least both said links are supported such that a joint arranged between said links adopts a torque-free position; - drivelessly switching at least the drive of the particular joint to which the torque sensor to be adjusted is coupled; - opening a possibly provided, closed brake of the particular joint to which the torque sensor to be adjusted is coupled; - subsequently recording the torque-dependent measurement of the torque sensor to be adjusted as a reference value of a torque-free state of the joint,
A method of pilot-assisted data communication, the method comprising, at a wireless network element: generating within a designated or pre-defined time region in at least one time slot of a communication a composite signal that comprises: a first, code division multiplexed CDM, pilot sequence (535; 610; 735; 805; 915; 932) that exhibits non-cyclic properties over the designated or pre- defined time region; and a second pilot sequence (530; 630; 730; 810; 920; 934), such that the composite signal within the designated or pre-defined time region exhibits a cyclic prefixed time domain structure, and transmitting both the first pilot sequence and second pilot sequence in substantially the same designated or pre-defined time region in the at least one time slot. generating within a designated or pre-defined time region in at least one time slot of a communication a composite signal that comprises: a first, code division multiplexed CDM, pilot sequence (535; 610; 735; 805; 915; 932) that exhibits non-cyclic properties over the designated or pre- defined time region; and a second pilot sequence (530; 630; 730; 810; 920; 934), a first, code division multiplexed CDM, pilot sequence (535; 610; 735; 805; 915; 932) that exhibits non-cyclic properties over the designated or pre- defined time region; and a second pilot sequence (530; 630; 730; 810; 920; 934), such that the composite signal within the designated or pre-defined time region exhibits a cyclic prefixed time domain structure, and transmitting both the first pilot sequence and second pilot sequence in substantially the same designated or pre-defined time region in the at least one time slot.
A reaction calorimeter probe arranged for calorimetric in-situ measurements in a pumpable reaction medium, comprising an inner tube arranged to have the pumpable reaction medium flowing through the inner tube, an outer tube extending coaxially of the inner tube at a radial distance from the inner tube, a sealed space between the inner tube and the outer tube, wherein the space is provided with a vacuum, a first temperature sensor arranged at an inlet end of the inner tube, a second temperature sensor arranged at an outlet end of the inner tube, at a distance from the first temperature sensor, wherein the first and second temperature sensors are arranged in the space and in contact with the outer surface of the inner tube for measuring an absolute temperature of the inner tube, wherein the first and second temperature sensors are arranged to enable determinations of absolute temperatures with a resolution which is better than 1μK, and a calculation device connected with the first and second temperature sensors, which calculation device is arranged to determine a first absolute temperature by means of the first temperature sensor, a second absolute temperature by means of the second temperature sensor, and to determine a temperature difference between the first and second absolute temperatures, wherein the reaction calorimeter probe further comprises a first initiation thermometer arranged in the space and in contact with the outer surface of the inner tube adjacent to the first temperature sensor, and a second initiation thermometer arranged in the space and in contact with the outer surface of the inner tube adjacent to the second temperature sensor, wherein the first and second initiation thermometers are arranged to provide the respective first and second temperature sensors with initiation temperatures.
System for transmitting data (22, 24) relating to an object (1, 1a, 1b, 1c, 1d), comprising - a local computing unit assigned to the object, having data memory, an evaluation unit and at least one application, wherein the application causes the evaluation unit to store data relating to the object in the data memory, and - a software agent that collects the data memory data and transmits it to an external computing unit via a data connection, characterised in that the object is an automation component in the control and field level and the object supplies internal and external object data, wherein the internal object data is calculated within the object and the external object data is status data from the process level, and the software agent has a classification module that classifies the data (22, 24) into sensitive data and non-sensitive data, wherein the data in the sensitive class is transmitted to the external computing unit using an encryption algorithm, and the data in the non-sensitive class is transmitted to the external computing unit unencrypted. - a local computing unit assigned to the object, having data memory, an evaluation unit and at least one application, wherein the application causes the evaluation unit to store data relating to the object in the data memory, and - a software agent that collects the data memory data and transmits it to an external computing unit via a data connection,
A saddle ride-type vehicle including: a vehicle body frame having a head pipe and left and right main frames extending rearward from the head pipe; an engine supported on the vehicle body frame; a seat for a driver; a storage box disposed between the left and right main frames and being open upwardly; a box lid openably and closably covering an opening portion of the storage box, the opening portion opening upward; a box-side locking mechanism configured to lock the box lid; a filler lid openably and closably covering a fuel filler of a fuel tank; and a filler-side locking mechanism configured to lock the filler lid, wherein an unlocking mechanism including a key cylinder which is key-operated is disposed between the head pipe and the storage box, and a box-side cable and a filler-side cable are connected to the key cylinder, the box-side cable being configured to be caused to unlock a lock of the box-side locking mechanism by turning of a key in one of a clockwise direction and a counter-clockwise direction, the filler-side cable being configured to be caused to unlock a lock of the filler-side locking mechanism by turning of the key in the other of the clockwise direction and the counter-clockwise direction. a vehicle body frame having a head pipe and left and right main frames extending rearward from the head pipe; an engine supported on the vehicle body frame; a seat for a driver; a storage box disposed between the left and right main frames and being open upwardly; a box lid openably and closably covering an opening portion of the storage box, the opening portion opening upward; a box-side locking mechanism configured to lock the box lid; a filler lid openably and closably covering a fuel filler of a fuel tank; and a filler-side locking mechanism configured to lock the filler lid, wherein an unlocking mechanism including a key cylinder which is key-operated is disposed between the head pipe and the storage box, and a box-side cable and a filler-side cable are connected to the key cylinder, the box-side cable being configured to be caused to unlock a lock of the box-side locking mechanism by turning of a key in one of a clockwise direction and a counter-clockwise direction, the filler-side cable being configured to be caused to unlock a lock of the filler-side locking mechanism by turning of the key in the other of the clockwise direction and the counter-clockwise direction.
Seat add-on device, in particular air passenger seat add-on device, for movably fixating an object to a seat (14a; 14b), with a support arm (16a; 16b) and with at least one mechanical energy storage unit (18a; 18b), which is configured to store, in a tensioned state, a force provided for moving the support arm (16a; 16b) from a stowage position (20a; 20b) into an unlocked position (22a; 22b), and with at least one fixation unit (24a; 24b). which is provided to hold the energy storage unit (18a; 18b) in the tensioned state, independently from the support arm (16a; 16b), wherein the energy storage unit (18a; 18b) comprises at least one actuation element (26a; 26b) and the fixation unit (24a; 24b) comprises a stationarily arranged housing (28a; 28b) and is provided to directly connect the actuation element (26a; 26b) to the housing (28a; 28b), wherein the fixation unit (24a; 24b) comprises at least one latching element (30a; 30b), which is configured to directly latch at least the actuation element (26a; 26b) of the energy storage unit (18a; 18b), and wherein the fixation unit comprises at least one further latching element, which is configured to directly latch the support arm and comprises a latch-release unit, which is configured to release the latching elements (30a, 32a) temporally one after the other one, characterised in that the latch-release unit comprises at least one coupling element, which is provided to couple the at least two latching elements (30a, 32a) to each other movement-technically.
Method for purification of a gas flow containing CO 2, nitrogen oxides and elementary mercury (Hg 0) comprising the following steps in sequence: a) a step to cool the gas flow to a temperature T1 lower than ambient temperature and higher than the deposition temperature THg of elementary mercury (Hg 0) contained in the gas flow, b) a step in which nitrogen oxides are eliminated from the cooled gas flow, c) a step in which the flow from which nitrogen oxides have been eliminated is heated, preferably to a temperature of between 5°C and 150°C, d) a step in which in the elementary mercury (Hg 0) in the gas flow output from step c) is eliminated by means of at least one absorbent, e) a step in which a gas flow enriched with CO 2 is recovered. a) a step to cool the gas flow to a temperature T1 lower than ambient temperature and higher than the deposition temperature THg of elementary mercury (Hg 0) contained in the gas flow, b) a step in which nitrogen oxides are eliminated from the cooled gas flow, c) a step in which the flow from which nitrogen oxides have been eliminated is heated, preferably to a temperature of between 5°C and 150°C, d) a step in which in the elementary mercury (Hg 0) in the gas flow output from step c) is eliminated by means of at least one absorbent, e) a step in which a gas flow enriched with CO 2 is recovered.
A laminate comprising the combination of: a base laminate including resin impregnated woven glass fabric sheet material having a first planar surface, a second planar surface, the woven glass fabric sheet having an original thickness of from 10 to 30 microns; and at least one copper foil sheet that is adhered to a planar surface of the woven glass fabric sheet material by a cured resin wherein the base laminate thickness is from 25 to 45 microns [1.0 to 1.75 mils] and wherein the laminate has an average minimum dielectric thickness of no less than 19 microns [0.75 mils] and an average maximum dielectric thickness of no greater than 38 microns [1.5 mils], wherein the dielectric thickness refers to the range between the measured minimum and maximum thicknesses of the resin impregnated woven fabric material portion of the laminate and does not include the thickness of any copper layer associated with the laminate, and wherein the base laminate thickness differs by no more than 20% when measured at the center and each of four corners of a 46 cm by 61 cm [18 inch by 24 inch] rectangular laminate sheet. a base laminate including resin impregnated woven glass fabric sheet material having a first planar surface, a second planar surface, the woven glass fabric sheet having an original thickness of from 10 to 30 microns; and at least one copper foil sheet that is adhered to a planar surface of the woven glass fabric sheet material by a cured resin wherein the base laminate thickness is from 25 to 45 microns [1.0 to 1.75 mils] and wherein the laminate has an average minimum dielectric thickness of no less than 19 microns [0.75 mils] and an average maximum dielectric thickness of no greater than 38 microns [1.5 mils], wherein the dielectric thickness refers to the range between the measured minimum and maximum thicknesses of the resin impregnated woven fabric material portion of the laminate and does not include the thickness of any copper layer associated with the laminate, and wherein the base laminate thickness differs by no more than 20% when measured at the center and each of four corners of a 46 cm by 61 cm [18 inch by 24 inch] rectangular laminate sheet.
An inventory management method, comprising; a) introducing a gas product into Q salt caverns, where Q is a number greater than 1, setting cavern counter N to 0, each salt caverns containing a working gas that is available to supply customer demands, in addition to a base gas that is used to maintain adequate minimum pressure within said salt caverns, b) if N = Q, setting salt cavern counter to N = 0, c) if N < Q, setting salt cavern counter to N = N + 1, d) removing and replacing the gas product from salt cavern N as supply and demand dictate, e) analyzing the impurities in the gas product that is removed from salt cavern N, f) predicting the duration that the salt cavern may be operated until a maximum acceptable impurity limit is present in the product gas removed from cavern N, g) removing all the working gas from salt cavern N when the maximum acceptable impurity limit is reached, then replacing the working gas in salt cavern N, while concurrently, repeating steps b) - f). a) introducing a gas product into Q salt caverns, where Q is a number greater than 1, setting cavern counter N to 0, each salt caverns containing a working gas that is available to supply customer demands, in addition to a base gas that is used to maintain adequate minimum pressure within said salt caverns, b) if N = Q, setting salt cavern counter to N = 0, c) if N < Q, setting salt cavern counter to N = N + 1, d) removing and replacing the gas product from salt cavern N as supply and demand dictate, e) analyzing the impurities in the gas product that is removed from salt cavern N, f) predicting the duration that the salt cavern may be operated until a maximum acceptable impurity limit is present in the product gas removed from cavern N, g) removing all the working gas from salt cavern N when the maximum acceptable impurity limit is reached, then replacing the working gas in salt cavern N, while concurrently, repeating steps b) - f).
A driver integrated circuit for driving a display apparatus comprising a panel which comprises: a plurality of gate lines (GL1,..., GLg), a plurality of data lines (DL1,..., DLd), a plurality of touch electrodes disposed in the panel, a plurality of touch electrode lines (TL1,..., TLt) connected to the plurality of touch electrodes, and a plurality of supply lines (SL, VCCL, VGLL, VGHL, GNDL) disposed in a non-display area outside a display area of the panel, the driver IC comprising a touch driver and a touch auxiliary signal supply unit, the touch driver comprising a common voltage switching unit configured to connect the plurality of touch electrode lines (TL1,..., TLt) to a common voltage supply element during an image display period and to connect the plurality of touch electrode lines (TL1,..., TLt) to a touch signal supply unit during a touch sensing period, the touch auxiliary signal supply unit comprising a touch auxiliary signal generator configured to generate a plurality of different touch auxiliary signals having different high levels and different low levels, wherein a phase and a potential difference of the touch signal are the same as a phase and a potential difference of each touch auxiliary signal, wherein the touch auxiliary signal supply unit is configured to supply the different touch auxiliary signals to different supply lines (SL, VCCL, VGLL, VGHL, GNDL) during the touch sensing period.
A surface anchor comprising an anchor device adapted to be anchored in the ground and comprising a tubular surface anchor structure, on the inside of which is fitted integrally a coupling device for coupling a support device, the support device can be coupled, in an exact position under locking conditions, and in a dismountable manner, to the anchor device by screwing of same, the tubular surface anchor structure is adapted to be secured to the surface in a hole drilled in the ground, characterised in that the anchor device further comprises an automatic cover device which is fitted to the coupling device, wherein in installed condition of the surface anchor the upper flat face of the automatic cover lies flush with the surface of the ground in a sealing position, wherein the automatic cover device is adapted to be pushed to this sealing position when the support device is removed and wherein the automatic cover device is adapted to be pushed to a lower position by screwing when the support device is coupled to the coupling device.
A method for determining a biomechanical characteristic of corneal tissue forming a cornea, said method comprising the steps of: measuring a geometric parameter of said cornea, said geometric parameter being corneal thickness; measuring (14, 14') hysteresis associated with deformation of said cornea; and evaluating said measured geometric parameter and said measured hysteresis to derive therefrom an indication of the intrinsic ability of the corneal tissue to resist deformation. measuring a geometric parameter of said cornea, said geometric parameter being corneal thickness; measuring (14, 14') hysteresis associated with deformation of said cornea; and evaluating said measured geometric parameter and said measured hysteresis to derive therefrom an indication of the intrinsic ability of the corneal tissue to resist deformation.