mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication of a first user equipment, UE, comprising: receiving broadcast information related to a second UE from a third UE; relaying the broadcast information and identifier information to a set of UEs; determining whether each UE in the set of UEs has received the broadcast information based on whether the identifier information is received from each UE in the set of UEs; and refraining from relaying the broadcast information upon determining that each UE in the set of UEs has received the broadcast information; wherein the identifier information comprises an identity for the second UE, the method characterized in that the identifier information further comprises a timestamp for the broadcast information generated by the second UE. receiving broadcast information related to a second UE from a third UE; relaying the broadcast information and identifier information to a set of UEs; determining whether each UE in the set of UEs has received the broadcast information based on whether the identifier information is received from each UE in the set of UEs; and refraining from relaying the broadcast information upon determining that each UE in the set of UEs has received the broadcast information; wherein the identifier information comprises an identity for the second UE, the method characterized in that the identifier information further comprises a timestamp for the broadcast information generated by the second UE.
A method comprising: receiving information about a display, wherein the received information comprises an image captured by a camera of a device at a first location, wherein the first location is a viewing position from which a viewer views a video on the display; determining an angle of the display relative to the first location based upon the received information about the display and the first location; and causing an audio playback system associated with the display to be calibrated based upon a modified azimuth of at least an audio object based upon the determined angle. receiving information about a display, wherein the received information comprises an image captured by a camera of a device at a first location, wherein the first location is a viewing position from which a viewer views a video on the display; determining an angle of the display relative to the first location based upon the received information about the display and the first location; and causing an audio playback system associated with the display to be calibrated based upon a modified azimuth of at least an audio object based upon the determined angle.
Lock (6, 7) of an espagnolette fitting of a casement of a window, a patio door, a door or the like that is pivotable relative to a frame, said lock comprising a counter-bearing (9, 109), having a stop (20, 120), for supporting a locking element of the espagnolette fitting that is located opposite it on the frame or on the casement, which locking element can be pivoted from a recessed unlocked position to a protruding locked position, wherein the stop (20, 120) is movable from a recessed position to a protruding position and has control means for controlling the movement of the stop (20, 120) as a function of the position of the casement relative to the frame, characterized in that the counter-bearing (9, 109) has a main body (13, 113) and the stop (20, 120) is arranged on a stop element (10, 110) that is displaceable in the main body (13, 113), in that magnets (11, 12) are arranged in a manner distributed symmetrically around the centre of gravity of the stop element (10, 110), and in that the magnets (11, 12) located opposite the stop element (10, 110) are arranged laterally next to the locking element, and in that the stop element (10, 110) is wider than the locking element.
A card-type LED illumination source, comprising: a heat-dissipating substrate including a plate, an insulating layer provided on the plate, and a conductive line pattern provided on the insulating layer; and multiple LED bare chips mounted facedown on the heat dissipating substrate and including a chip substrate and a light emitting portion disposed thereon, wherein the light emitting portion is closer to the heat-dissipating substrate than the chip substrate is, wherein an area of the electrodes (12a, 14a) of each LED bare chip is greater than or equal to 50% of the overall area of the element, characterized in that the plate is a metal plate with a thickness in the range of 0.5 to 3 μm, in that the heat-dissipating substrate has a thickness in the range of 0.7 to 2.0 mm, in that a thermal resistance between the back surface of the heat-dissipating substrate and the LED bare chips is 10 DEG C/W or less and in that the insulating layer (1 c) is made of a composite material including an inorganic filler and a resin composition. a heat-dissipating substrate including a plate, an insulating layer provided on the plate, and a conductive line pattern provided on the insulating layer; and multiple LED bare chips mounted facedown on the heat dissipating substrate and including a chip substrate and a light emitting portion disposed thereon, wherein the light emitting portion is closer to the heat-dissipating substrate than the chip substrate is, wherein an area of the electrodes (12a, 14a) of each LED bare chip is greater than or equal to 50% of the overall area of the element, characterized in that the plate is a metal plate with a thickness in the range of 0.5 to 3 μm, in that the heat-dissipating substrate has a thickness in the range of 0.7 to 2.0 mm, in that a thermal resistance between the back surface of the heat-dissipating substrate and the LED bare chips is 10 DEG C/W or less and in that the insulating layer (1 c) is made of a composite material including an inorganic filler and a resin composition.
Housing for a computer system having at least one first and one second housing opening, wherein the first housing opening can be closed with a first housing cover and the second housing opening can be closed with a second housing cover, as well as having a switch element with a switch contact, wherein the switch contact is triggered both when opening the first housing cover and when opening the second housing cover in order to indicate an opening of the housing, characterized in that a switch housing of the switch element is moveably supported, wherein part of the first housing cover acts on the switch contact and part of the second housing cover acts on the switch housing so that a relative movement between the switch contact and the switch housing is effected both when opening the first housing cover and when opening the second housing cover.
A multi-layered delivery device, which is applied to the surface of skin for delivering one or more therapeutic agents to the skin, comprising: 2 or more composite sheets, including a therapeutic agent; a flexible, porous, encapsulated polymer open cell foam material for holding and releasing the therapeutic agent; a polymer enrobing material in contact with the skin for holding and releasing the encapsulated polymer foam material including the therapeutic agent for delivery to the skin, wherein the particle size of the one or more therapeutic agents and the particle size of the flexible polymer with the open cell size become incrementally larger as they are situated in layers contacting the skin and then successively placed outwardly away from the skin, so that a smaller particle size of the therapeutic agent is located in a layer closer to the skin, with the next larger particle size located in a layer adjacent to the layer closest to the skin. 2 or more composite sheets, including a therapeutic agent; a flexible, porous, encapsulated polymer open cell foam material for holding and releasing the therapeutic agent; a polymer enrobing material in contact with the skin for holding and releasing the encapsulated polymer foam material including the therapeutic agent for delivery to the skin, wherein the particle size of the one or more therapeutic agents and the particle size of the flexible polymer with the open cell size become incrementally larger as they are situated in layers contacting the skin and then successively placed outwardly away from the skin, so that a smaller particle size of the therapeutic agent is located in a layer closer to the skin, with the next larger particle size located in a layer adjacent to the layer closest to the skin.
A deposition nozzle, comprising: a housing; an inlet into the housing, wherein the inlet is arranged to receive a solution carrying randomly oriented fibers; an orientation component within the housing, wherein the orientation component comprises at least two rollers, and wherein the orientation component is positioned to receive the solution from the inlet and operate to produce aligned fibers in a predetermined, single direction; and an outlet on the housing, wherein the outlet is arranged to receive the aligned fibers and deposit them on a substrate; characterised in that the housing further comprises a rotating ring at the outlet, wherein the rotating ring is configured to control the angle of the aligned fibers as they exit the outlet. a housing; an inlet into the housing, wherein the inlet is arranged to receive a solution carrying randomly oriented fibers; an orientation component within the housing, wherein the orientation component comprises at least two rollers, and wherein the orientation component is positioned to receive the solution from the inlet and operate to produce aligned fibers in a predetermined, single direction; and an outlet on the housing, wherein the outlet is arranged to receive the aligned fibers and deposit them on a substrate; characterised in that the housing further comprises a rotating ring at the outlet, wherein the rotating ring is configured to control the angle of the aligned fibers as they exit the outlet.
A system for regulating a thermal parameter (T M) associated with a heat exchange assembly of a turbomachine, comprising: - at least one means for measuring or estimating said thermal parameter (T M), - a valve controlled by an at least partly electric control system, the valve including a shutter, formed for example by at least one flap, said shutter being configured to vary the flow rate of passage of a fluid in said heat exchange assembly in order to affect said thermal parameter (T M), and - a regulator comprising a comparator configured to determine the positive or negative sign of an error signal (ε) relating to the difference (ε) between a value of the thermal parameter (T M) measured or estimated by said means and a setpoint (T C), characterized in that the regulator further comprises: - a switch coupled to the output of the comparator and configured to deliver to the valve control system a maximum control current (Max) or a minimum control current (Min) based on the positive or negative sign of the error signal (ε), the maximum control current (Max) making it possible to switch the shutter of said valve in a first position defining a fully closed state of the valve and the minimum control current (Min) making it possible to switch the shutter of said valve in a second position defining a fully open state of the valve, and - a phase-shifter configured to apply on the error signal (ε) a phase advance determined from an estimate of a time constant (τ) of the valve control system. - at least one means for measuring or estimating said thermal parameter (T M), - a valve controlled by an at least partly electric control system, the valve including a shutter, formed for example by at least one flap, said shutter being configured to vary the flow rate of passage of a fluid in said heat exchange assembly in order to affect said thermal parameter (T M), and - a regulator comprising a comparator configured to determine the positive or negative sign of an error signal (ε) relating to the difference (ε) between a value of the thermal parameter (T M) measured or estimated by said means and a setpoint (T C), - a switch coupled to the output of the comparator and configured to deliver to the valve control system a maximum control current (Max) or a minimum control current (Min) based on the positive or negative sign of the error signal (ε), the maximum control current (Max) making it possible to switch the shutter of said valve in a first position defining a fully closed state of the valve and the minimum control current (Min) making it possible to switch the shutter of said valve in a second position defining a fully open state of the valve, and - a phase-shifter configured to apply on the error signal (ε) a phase advance determined from an estimate of a time constant (τ) of the valve control system.
A method for use by a user equipment, UE, comprising: providing, by the UE, to a radio link control, RLC, layer information from a medium access control, MAC, layer and selecting an RLC protocol data unit, PDU, size in response to the information from the MAC layer; and producing, by the UE, RLC PDUs having the selected size and providing the produced RLC PDUs to a MAC layer as a flow, characterized by: providing, by the UE, a plurality of flows at the MAC layer, each of the plurality of flows having an associated priority and having an associated credit value; producing, by the UE, a MAC PDU by taking data from a highest priority flow up to the associated credit value and taking data from other flows subsequently; and transmitting, by the UE, the produced MAC PDU. providing, by the UE, to a radio link control, RLC, layer information from a medium access control, MAC, layer and selecting an RLC protocol data unit, PDU, size in response to the information from the MAC layer; and producing, by the UE, RLC PDUs having the selected size and providing the produced RLC PDUs to a MAC layer as a flow, characterized by: providing, by the UE, a plurality of flows at the MAC layer, each of the plurality of flows having an associated priority and having an associated credit value; producing, by the UE, a MAC PDU by taking data from a highest priority flow up to the associated credit value and taking data from other flows subsequently; and transmitting, by the UE, the produced MAC PDU. providing, by the UE, a plurality of flows at the MAC layer, each of the plurality of flows having an associated priority and having an associated credit value; producing, by the UE, a MAC PDU by taking data from a highest priority flow up to the associated credit value and taking data from other flows subsequently; and transmitting, by the UE, the produced MAC PDU.
A nitride semiconductor laser, comprising: a first nitride semiconductor layer; a light-emitting layer on the first nitride semiconductor layer, the light-emitting layer including a nitride semiconductor; a second nitride semiconductor layer on the light-emitting layer, the second nitride semiconductor layer having a ridge portion; an electrode component on the second nitride semiconductor layer, the electrode component being in contact with an upper surface of the ridge portion and wider than the ridge portion; and a dielectric layer on side surfaces of the ridge portion, the dielectric layer including SiO 2, wherein a space is present between the electrode component and the dielectric layer, characterised in that the electrode component is prevented from being in contact with the dielectric layer by the space. a first nitride semiconductor layer; a light-emitting layer on the first nitride semiconductor layer, the light-emitting layer including a nitride semiconductor; a second nitride semiconductor layer on the light-emitting layer, the second nitride semiconductor layer having a ridge portion; an electrode component on the second nitride semiconductor layer, the electrode component being in contact with an upper surface of the ridge portion and wider than the ridge portion; and a dielectric layer on side surfaces of the ridge portion, the dielectric layer including SiO 2, wherein a space is present between the electrode component and the dielectric layer, characterised in that the electrode component is prevented from being in contact with the dielectric layer by the space.
A conveyor portion for conveying small parts, in particular bottle caps, comprising two conveyor belts for conveying small parts, in particular bottle caps, wherein each conveyor belt comprises a belt body, which belt body, perpendicular to its longitudinal axis, comprises a cross-sectional area which is angular at least in sections, wherein the belt body has a conveying side, wherein the cross-sectional area is bounded at least in some sections by the conveying side, and wherein carrier elements protrude from the conveying side, wherein further, in an operating state of the conveyor portion, each conveyor belt comprises a strand running in one conveying direction and a returning strand, wherein the strands running in the conveying direction are disposed opposite each other and delimit a conveying gap, at least in some sections, for accommodating the small parts to be conveyed, wherein the conveying sides of the strands running in the conveying direction face each other, and wherein the strands running in the conveying direction are arranged above a conveying surface, which conveying surface delimits the conveying gap in a first transverse direction, characterized in that a longitudinal axis of the carrier elements of the strands running in the conveying direction enclose an angle of 100° to 130°, preferably 120°, with the conveying direction, so that the carrier elements are arranged in an obliquely trailing manner.
A method comprising: detecting, by a base station, BS, a failure of an interface between the BS and a core network, BS-core network interface,; sending, by the BS, a failure notification message to one or more mobile stations, MSs, (131, 132, 133) of a cell indicating the failure of the BS-core network interface; selecting, by the BS, one or more of the MSs (131, 132, 133) to be a security agent, SA, wherein the SA is capable of authenticating other MSs (132, 133); and sending a SA configuration message to one or more of the MSs (131, 132, 133), the SA configuration message including a service identification identifying one or more services, one or more user group IDs identifying one or more user groups for which the MS has been configured as a security agent to perform the one or more identified services, and a BS access key to allow one or more other MSs (132, 133) to access or establish a connection with the BS. detecting, by a base station, BS, a failure of an interface between the BS and a core network, BS-core network interface,; sending, by the BS, a failure notification message to one or more mobile stations, MSs, (131, 132, 133) of a cell indicating the failure of the BS-core network interface; selecting, by the BS, one or more of the MSs (131, 132, 133) to be a security agent, SA, wherein the SA is capable of authenticating other MSs (132, 133); and sending a SA configuration message to one or more of the MSs (131, 132, 133), the SA configuration message including a service identification identifying one or more services, one or more user group IDs identifying one or more user groups for which the MS has been configured as a security agent to perform the one or more identified services, and a BS access key to allow one or more other MSs (132, 133) to access or establish a connection with the BS.
Method of operating a device for performing cutting operations on at least one open format edge of at least one printed product, wherein the device is operatively connected to a printed product-specific feed device for the first cutting operation and to a printed product-specific discharge device operating after the final cutting operation, wherein each edge-specific cutting operation is performed by at least one cutting device, wherein the printed product is transferred from a first cutting location at which the cutting operation for a first format edge of the printed product is performed to a second cutting location at which the cutting operation for a second format edge takes place, wherein, once the cutting operation has been performed at the second cutting location, the printed product is transferred to a third cutting location at which the cutting operation for a third format edge takes place and wherein the printed product is transferred from one cutting location to the next by at least one transport unit (101, 102,...), characterised in that the transport unit has at least one means that grips the printed product by the spine in order to convey it in a suspended manner from one cutting location to the next.
An apparatus for generating a three-dimensional object, the apparatus comprising; at least one energy source; at least one build layer temperature sensor; a controller to: monitor, with the at least one build layer temperature sensor, a temperature of a build layer in a build area of the apparatus to determine when a build layer temperature is less than a first temperature threshold, and in response, control the at least one energy source to pre-fuse a portion of the build layer when the build layer temperature is less than the first temperature threshold; after pre-fusing the portion of the build layer, monitor, with the at least one build layer temperature sensor, the temperature of the build area to determine when the build layer temperature is less than a second temperature threshold, and in response, control the at least one energy source to fuse the portion of the build layer in the build area when the build layer temperature is less than the second temperature threshold. at least one energy source; at least one build layer temperature sensor; a controller to: monitor, with the at least one build layer temperature sensor, a temperature of a build layer in a build area of the apparatus to determine when a build layer temperature is less than a first temperature threshold, and in response, control the at least one energy source to pre-fuse a portion of the build layer when the build layer temperature is less than the first temperature threshold; after pre-fusing the portion of the build layer, monitor, with the at least one build layer temperature sensor, the temperature of the build area to determine when the build layer temperature is less than a second temperature threshold, and in response, control the at least one energy source to fuse the portion of the build layer in the build area when the build layer temperature is less than the second temperature threshold. monitor, with the at least one build layer temperature sensor, a temperature of a build layer in a build area of the apparatus to determine when a build layer temperature is less than a first temperature threshold, and in response, control the at least one energy source to pre-fuse a portion of the build layer when the build layer temperature is less than the first temperature threshold; after pre-fusing the portion of the build layer, monitor, with the at least one build layer temperature sensor, the temperature of the build area to determine when the build layer temperature is less than a second temperature threshold, and in response, control the at least one energy source to fuse the portion of the build layer in the build area when the build layer temperature is less than the second temperature threshold.