mhurhangee/ep-ind-claims huggingface dataset:
A method of performing a time synchronization, the method comprising: setting a time corresponding to a time at which a sync signal for the time synchronization is to be transmitted to another terminal apparatus, to a reference time; transmitting the sync signal comprising the set reference time to at least two other terminal apparatuses; and if response signals are received from the at least two terminal apparatuses, performing a time synchronization with all of the at least two other terminal apparatuses based on a reception time of a first received one of the received response signals and the reference time. setting a time corresponding to a time at which a sync signal for the time synchronization is to be transmitted to another terminal apparatus, to a reference time; transmitting the sync signal comprising the set reference time to at least two other terminal apparatuses; and if response signals are received from the at least two terminal apparatuses, performing a time synchronization with all of the at least two other terminal apparatuses based on a reception time of a first received one of the received response signals and the reference time.
An objective employed for use in inspecting a specimen, comprising: a focusing lens group configured to receive said light energy and comprising at least one focusing lens; at least one field lens oriented to receive focused light energy from said focusing lens group and provide intermediate light energy; an immersion substance located between said Mangin mirror arrangement and said specimen; and a Mangin mirror arrangement positioned to receive the intermediate light energy from the field lens and form controlled light energy, said Mangin mirror arrangement comprising: a first Mangin mirror element having a substantially curved convex side and a front side which is reflectively coated, a mirror, reflectively coated on both sides, a lens, a second Mangin mirror element having a minimally curved concave side and a second side which is reflectively coated, the front side of the first Mangin mirror element, both sides of the mirror, and the second side of the second Mangin mirror element have central apertures where reflective material is absent; said Mangin mirror arrangement imparting the controlled light energy to a specimen with a numerical aperture in excess of 0.9 and an object field size of greater than or equal to approximately 0.10 mm, wherein each focusing lens and each field lens is formed from a single glass material and aligned substantially along an axis. a focusing lens group configured to receive said light energy and comprising at least one focusing lens; at least one field lens oriented to receive focused light energy from said focusing lens group and provide intermediate light energy; an immersion substance located between said Mangin mirror arrangement and said specimen; and a Mangin mirror arrangement positioned to receive the intermediate light energy from the field lens and form controlled light energy, said Mangin mirror arrangement comprising: a first Mangin mirror element having a substantially curved convex side and a front side which is reflectively coated, a mirror, reflectively coated on both sides, a lens, a second Mangin mirror element having a minimally curved concave side and a second side which is reflectively coated, the front side of the first Mangin mirror element, both sides of the mirror, and the second side of the second Mangin mirror element have central apertures where reflective material is absent; a first Mangin mirror element having a substantially curved convex side and a front side which is reflectively coated, a mirror, reflectively coated on both sides, a lens, a second Mangin mirror element having a minimally curved concave side and a second side which is reflectively coated, the front side of the first Mangin mirror element, both sides of the mirror, and the second side of the second Mangin mirror element have central apertures where reflective material is absent; said Mangin mirror arrangement imparting the controlled light energy to a specimen with a numerical aperture in excess of 0.9 and an object field size of greater than or equal to approximately 0.10 mm,
An operation method of a vehicle assembly including a secondary coil and a rectifier which controls output of the rectifier to manage charging of a battery equipped in a vehicle, the method comprising: Receiving battery charging status information from the battery; Determining whether a battery charging level according to the battery charging status information is greater than a reference level; when the battery charging level is greater than the reference level, controlling a first switching circuit and a second switching circuit of the rectifier to change or maintain a charging power to the battery according to a charging status of the battery; and characterized in that when the battery charging level is greater than the reference level, moving the secondary coil to misalign the secondary coil with a primary coil which inductively couples with the secondary coil within a predetermined range, wherein a first rectifying circuit, a second rectifying circuit, the first switching circuit, and the second switching circuit are arranged in a form of a bridge circuit in the rectifier. Receiving battery charging status information from the battery; Determining whether a battery charging level according to the battery charging status information is greater than a reference level; when the battery charging level is greater than the reference level, controlling a first switching circuit and a second switching circuit of the rectifier to change or maintain a charging power to the battery according to a charging status of the battery; and characterized in that when the battery charging level is greater than the reference level, moving the secondary coil to misalign the secondary coil with a primary coil which inductively couples with the secondary coil within a predetermined range, wherein a first rectifying circuit, a second rectifying circuit, the first switching circuit, and the second switching circuit are arranged in a form of a bridge circuit in the rectifier.
Circuitry for an evolved NodeB, eNB, that functions as a Long Term Evolution, LTE, -Licensed Assisted Access, LAA, node, the circuitry being configured to: perform a Listen-Before-Talk, LBT, operation before downlink transmission to User Equipment, UE, using unlicensed frequency channels, the LBT operation determining when a particular frequency channel is unoccupied; and transmit, when the channel is determined to be unoccupied, a Discovery Reference Signal, DRS, as an LTE-LAA transmission, the DRS including: a reservation signal, the reservation signal including one or more symbols that fill in empty time slots in the LTE-LAA transmission to create a continuous DRS transmission, wherein the DRS additionally includes Primary Synchronization Signals, PSS, Secondary Synchronization Signals, SSS, and Cell-specific Reference Signals, CRS, wherein the DRS additionally includes Channel State Information Reference Signals, CSI-RS, characterized in that the circuitry is configured to transmit the DRS in resource elements consisting of twelve Orthogonal Frequency Division Multiplexing, OFDM, symbols. perform a Listen-Before-Talk, LBT, operation before downlink transmission to User Equipment, UE, using unlicensed frequency channels, the LBT operation determining when a particular frequency channel is unoccupied; and transmit, when the channel is determined to be unoccupied, a Discovery Reference Signal, DRS, as an LTE-LAA transmission, the DRS including: a reservation signal, the reservation signal including one or more symbols that fill in empty time slots in the LTE-LAA transmission to create a continuous DRS transmission, wherein the DRS additionally includes Primary Synchronization Signals, PSS, Secondary Synchronization Signals, SSS, and Cell-specific Reference Signals, CRS, wherein the DRS additionally includes Channel State Information Reference Signals, CSI-RS, characterized in that the circuitry is configured to transmit the DRS in resource elements consisting of twelve Orthogonal Frequency Division Multiplexing, OFDM, symbols.
Escape route securing device for securing a door in an escape route having a locking device which can be switched and/or actuated by an emergency button, wherein the emergency button has a housing or is arranged in or on a housing which is able to be mounted in the region of an escape route, wherein the housing has a front side, a rear side and side surfaces connecting these, and an operating element for switching and/or actuating the locking device is arranged on the front side of the housing, and wherein the housing has an optical alarm and/or status display, wherein the housing has a moveable display as an emergency button or as an operating element, which moveable display actuates an electrical switching contact when moved or generates a command or a message to control or to unlock a locking device and/or trigger an alarm, characterised in that the optical alarm and/or status display has multi-coloured LEDs or controllable RGB-LEDs as lighting means and is arranged on at least two side surfaces of the housing in such a way that the optical alarm and/or status display radiates upwards and at least to one side.
A method for manufacturing an organic light emitting device, the method comprising the following sequences of steps: - a step of forming a stack of layers on a substrate, said stack comprising, successively, a first electrode positioned on the substrate, an organic layer positioned in contact with at least a portion of the first electrode, a second electrode positioned in contact with at least a portion of the organic layer, - a step of positioning a cover, a first face of which is bonded using an adhesive layer, with said cover being positioned on the stack of layers, so that the adhesive layer fits the cover and the stack of layers, - a step of forming a connection pad so executed that the connection pad covers at least a portion of the second face of the cover and at least a portion of one of the electrodes (210, 230), - a step of fixing a first end of at least one elongated electrical connection member to an area of the connection pad covering a portion of the second face of the cover, characterized in that it comprises as further step - the forming a layer of resist covering the entire device; with said layer of resist being so configured as to preserve an electrical access to a second end of the elongated electrical connection member above the layer of resist. - a step of forming a stack of layers on a substrate, said stack comprising, successively, a first electrode positioned on the substrate, an organic layer positioned in contact with at least a portion of the first electrode, a second electrode positioned in contact with at least a portion of the organic layer, - a step of positioning a cover, a first face of which is bonded using an adhesive layer, with said cover being positioned on the stack of layers, so that the adhesive layer fits the cover and the stack of layers, - a step of forming a connection pad so executed that the connection pad covers at least a portion of the second face of the cover and at least a portion of one of the electrodes (210, 230), - a step of fixing a first end of at least one elongated electrical connection member to an area of the connection pad covering a portion of the second face of the cover, characterized in that it comprises as further step - the forming a layer of resist covering the entire device; with said layer of resist being so configured as to preserve an electrical access to a second end of the elongated electrical connection member above the layer of resist. - the forming a layer of resist covering the entire device; with said layer of resist being so configured as to preserve an electrical access to a second end of the elongated electrical connection member above the layer of resist.
Steering gear which comprises two planetary gearboxes (32, 34) which are configured with toothed-belt pulleys, wherein first toothed-belt pulleys (22a, 22b, 22c) of a first planetary gearbox are in each case disposed in pairs with first toothed-belt pulleys (24a, 24b, 24c) of a second planetary gearbox in planet carriers so as to be rotatable on a shaft, and the drive input of the shafts and of the toothed-belt pulleys (22a, 22b, 22c; 24a, 24b, 24c) disposed on the shafts is performed by way of the rotatable planet carriers; wherein a second toothed-belt pulley of the first planetary gearbox is disposed so as to be stationary, and a second toothed-belt pulley of the second planetary gearbox is disposed so as to be rotatable relative to the second toothed-belt pulley of the first planetary gearbox; wherein the second rotatable toothed-belt pulley of the second planetary gearbox forms the drive output of the steering gear; wherein toothed belts (10A, 10B), which are provided with two running surfaces (2, 4) disposed opposite one another, are disposed as damping elements between the first toothed-belt pulleys (22a, 22b, 22c; 24a, 24b, 24c) and the second toothed-belt pulleys (26, 28) of the planetary gearboxes (32, 34); wherein disposed on the running surfaces (2, 4) are toothings (12, 14) which are oriented obliquely to the axial direction, wherein the obliquity is in each case defined by helix angles (16, 18) between the axial direction and the direction of the tooth flanks of the respective toothings (12, 14), and the helix angle of the first toothing is oriented oppositely to the helix angle of the second toothing.
A female snap button comprising a female snap body and a socket ring (20, 60) to be incorporated in the female snap body, wherein the female snap body comprises a bottom portion and a side wall rising from a peripheral edge of the bottom portion, the side wall being provided with a holding portion for holding the socket ring (20, 60), wherein the socket ring (20, 60) comprises a flange portion (21, 61) arranged radially outward and held by the holding portion and an engaging portion (22, 62) arranged radially inside the flange portion (21, 61), and wherein the engaging portion (22, 62) protrudes downwardly toward the bottom portion side of the female snap body and below the flange portion (21, 61), in the axial direction of the socket ring (20, 60), characterized in that the holding portion includes a lower holding portion supporting the bottom portion side in the flange portion (21, 61) of the socket ring (20, 60), a side holding portion rising from a radially outer side of the lower holding portion, and an upper holding portion extending radially inward from an end portion of the side away from the lower holding portion in the side holding portion, and wherein the engaging portion (22, 62) protrudes downwardly toward the bottom portion side and below the lower holding portion. wherein the female snap body comprises a bottom portion and a side wall rising from a peripheral edge of the bottom portion, the side wall being provided with a holding portion for holding the socket ring (20, 60), wherein the socket ring (20, 60) comprises a flange portion (21, 61) arranged radially outward and held by the holding portion and an engaging portion (22, 62) arranged radially inside the flange portion (21, 61), and wherein the engaging portion (22, 62) protrudes downwardly toward the bottom portion side of the female snap body and below the flange portion (21, 61), in the axial direction of the socket ring (20, 60), characterized in that
A method of routing packets from a provider Autonomous System, AS, in a network comprising Autonomous Systems (AS100, AS200, AS123, AS456, AS789), ASs, the method comprising the steps of: obtaining, by a next hop determiner, route indicators from a Routing Table stored at a public route server or at a provider AS, each said route indicator comprising: an indicator of a network prefix; and an indicator of an AS path for delivering packets to an AS having the network prefix; identifying, by a comparator of the next hop determiner, and by comparison of each said AS path indicator to one or more AS identifiers stored in a predetermined AS identifier store, at least one said obtained route indicator having an AS path indicator comprising a predetermined AS identifier (602a, 602b, 602c); storing the network prefix indicator of each said identified route indicator in a memory of the next hop determiner; receiving at least one packet having an address indicating a destination; and if the destination address of said packet is within an address range defined by a said stored prefix indicator: transmitting, by a packet output port of the next hop determiner, the packet on a non-peering connection (200, 201, 202) to the AS having the predetermined AS identifier (602a, 602b, 602c), wherein the non-peering connection does not perform direct BGP peering to exchange the network prefix with the AS having the predetermined AS identifier. obtaining, by a next hop determiner, route indicators from a Routing Table stored at a public route server or at a provider AS, each said route indicator comprising: an indicator of a network prefix; and an indicator of an AS path for delivering packets to an AS having the network prefix; an indicator of a network prefix; and an indicator of an AS path for delivering packets to an AS having the network prefix; identifying, by a comparator of the next hop determiner, and by comparison of each said AS path indicator to one or more AS identifiers stored in a predetermined AS identifier store, at least one said obtained route indicator having an AS path indicator comprising a predetermined AS identifier (602a, 602b, 602c); storing the network prefix indicator of each said identified route indicator in a memory of the next hop determiner; receiving at least one packet having an address indicating a destination; and if the destination address of said packet is within an address range defined by a said stored prefix indicator: transmitting, by a packet output port of the next hop determiner, the packet on a non-peering connection (200, 201, 202) to the AS having the predetermined AS identifier (602a, 602b, 602c), wherein the non-peering connection does not perform direct BGP peering to exchange the network prefix with the AS having the predetermined AS identifier.
An intermodal rail vehicle having: an upper frame weldment having two pairs of crossmembers; and two lower frame weldments (28, 30), the two lower frame weldments (28, 30) being steerable with respect to the upper frame weldment, the upper frame weldment being supported on the two lower frame weldments (28, 30), each lower frame weldment (28, 30) including two side frame weldments and two transverse cross channels; each lower frame weldment (28, 30) receiving a rail wheel assembly; wherein a connector assembly is arranged to connect the two lower frame weldments to one another and to permit a rocking motion between the two lower frame weldments; and each of the two transverse cross channels is disposed beneath and extends parallel to a corresponding one crossmember of the two pairs of crossmembers of the upper frame weldment; characterized in that each crossmember of the two pairs of crossmembers includes a threaded block fastened to the crossmember at its center; and in that each of the two transverse cross channels of each of the two lower frame weldments (28, 30) includes a loose block having a vertical hole that is slidably constrained within the each transverse cross channel such that the vertical hole overlaps an elongate opening formed in each of upper and lower faces of each transverse cross channel; and a steering return scheme includes a vertical steering bar attached to each threaded block of the upper frame weldment and passes through each corresponding loose block and extends beyond the elongate openings in the upper and lower faces of each transverse cross channel. an upper frame weldment having two pairs of crossmembers; and two lower frame weldments (28, 30), the two lower frame weldments (28, 30) being steerable with respect to the upper frame weldment, the upper frame weldment being supported on the two lower frame weldments (28, 30), each lower frame weldment (28, 30) including two side frame weldments and two transverse cross channels; each lower frame weldment (28, 30) receiving a rail wheel assembly;
Device for measuring a physiological parameter of a user carrying said device, said device comprising: - an optical sensor comprising at least one light emitting element (221, 223) for emitting light to the user's skin and at least one light receiving element, for receiving light reflected from the user's skin, - a carrier carrying said sensor, wherein electrical contacts of said at least one light emitting element and at least one light receiving element lead on, into or through said carrier, - at least one emitter frame (41, 43) carried by said carrier and formed around one of said at least one light emitting element (221, 223), - a insulator material filled between said at least one emitter frame and the at least one light emitting element (221, 223) surrounded by the respective emitter frame (41, 43) up to a height; wherein said at least one emitter frame (41, 43) has a height from the carrier, characterised in that each of the height of the insulator material and the height of the at least one light emitter frame (41,43) is smaller than or equal to the distance between the carrier and a top surface of the respective light emitting element (221, 223) surrounded by said emitter frame (41, 43). - an optical sensor comprising at least one light emitting element (221, 223) for emitting light to the user's skin and at least one light receiving element, for receiving light reflected from the user's skin, - a carrier carrying said sensor, wherein electrical contacts of said at least one light emitting element and at least one light receiving element lead on, into or through said carrier, - at least one emitter frame (41, 43) carried by said carrier and formed around one of said at least one light emitting element (221, 223), - a insulator material filled between said at least one emitter frame and the at least one light emitting element (221, 223) surrounded by the respective emitter frame (41, 43) up to a height;