mhurhangee/ep-ind-claims huggingface dataset:
A display comprising: a) one or more waveguides, each waveguide independently having a photoluminescent image printed thereon, wherein the printed photoluminescent image creates a surface texture on the waveguide; b) one or more short wavelength light sources emitting excitation light, having a wavelength less than 450 nm, wherein each light source is associated with one waveguide, and adapted to transmit light through said waveguide, causing the photoluminescent image to emit visible light; wherein each waveguide comprises one or more layers of overprint varnish, OPV; characterized in that the OPV is configured to eliminate the surface texture of the photoluminescent printed waveguide. a) one or more waveguides, each waveguide independently having a photoluminescent image printed thereon, wherein the printed photoluminescent image creates a surface texture on the waveguide; b) one or more short wavelength light sources emitting excitation light, having a wavelength less than 450 nm, wherein each light source is associated with one waveguide, and adapted to transmit light through said waveguide, causing the photoluminescent image to emit visible light; wherein each waveguide comprises one or more layers of overprint varnish, OPV; characterized in that the OPV is configured to eliminate the surface texture of the photoluminescent printed waveguide.
A pressure responsive device, including: a hollow body; a membrane comprising a bellows disposed within said hollow body and defining inner and outer chambers within said hollow body, the membrane comprising an open end and a closed end and being responsive to a differential pressure between said inner and outer chambers; and characterised in that a movable indicator is disposed towards a closed end of the membrane, the movable indicator being visible through said hollow body for indicating said differential pressure, wherein the closed end is movable relative to the open end in response to differential pressure between the inner and outer chambers, such that the indicator is movable to indicate the differential pressure, wherein the movable indicator is connected to the bellows at the closed end thereof, wherein the movable indicator is formed as a disc having a peripheral flange. a hollow body; a membrane comprising a bellows disposed within said hollow body and defining inner and outer chambers within said hollow body, the membrane comprising an open end and a closed end and being responsive to a differential pressure between said inner and outer chambers; and characterised in that a movable indicator is disposed towards a closed end of the membrane, the movable indicator being visible through said hollow body for indicating said differential pressure, wherein the closed end is movable relative to the open end in response to differential pressure between the inner and outer chambers, such that the indicator is movable to indicate the differential pressure, wherein the movable indicator is connected to the bellows at the closed end thereof, wherein the movable indicator is formed as a disc having a peripheral flange.
A pressure sensor, comprising: a light source that outputs signal light; a sensor optical fiber where the signal light is input and the signal light is propagated with a loss of 0.3 dB/m or more; and an optical receiver that receives the signal light propagated through the sensor optical fiber, wherein pressure applied to the sensor optical fiber is detected on a basis of intensity of the signal light received by the optical receiver, characterized in that the sensor optical fiber has a core portion and a cladding portion formed around the core portion, plural nanostructures are present near an interface between the core portion and the cladding portion, the nanostructures each have a sectional diameter of 100 nm or smaller, the sectional diameter being that of a cross section perpendicular to a longitudinal direction of the sensor optical fiber, and the nanostructures are distributed in a length section of 1 m or less along the longitudinal direction. a light source that outputs signal light; a sensor optical fiber where the signal light is input and the signal light is propagated with a loss of 0.3 dB/m or more; and an optical receiver that receives the signal light propagated through the sensor optical fiber, wherein pressure applied to the sensor optical fiber is detected on a basis of intensity of the signal light received by the optical receiver, characterized in that the sensor optical fiber has a core portion and a cladding portion formed around the core portion, plural nanostructures are present near an interface between the core portion and the cladding portion, the nanostructures each have a sectional diameter of 100 nm or smaller, the sectional diameter being that of a cross section perpendicular to a longitudinal direction of the sensor optical fiber, and the nanostructures are distributed in a length section of 1 m or less along the longitudinal direction.
Domotic system, functioning selectively in a normal mode (M 12) or in an advanced mode (M 14) and comprising: - a control point equipped with a man-machine interface for capture and display and with means for wired or wireless communication, - at least one item of domotic equipment (31 - 35) controlled by means of the control point, - a display device, separate from the control point, equipped with means for display and means for communication with the control point, characterised: - in that, in normal mode, the display device is independent of the control point and of each item of domotic equipment (31 - 35), and - in that the control point comprises hardware and software for exporting data to be displayed on the display device, in advanced mode of the domotic system where: - the control point generates the data to be displayed and transmits them to the display device; and - the man-machine interface for capture and display develops into a user interface for capture of information relating to data displayed on the display device. - a control point equipped with a man-machine interface for capture and display and with means for wired or wireless communication, - at least one item of domotic equipment (31 - 35) controlled by means of the control point, - a display device, separate from the control point, equipped with means for display and means for communication with the control point, - in that, in normal mode, the display device is independent of the control point and of each item of domotic equipment (31 - 35), and - in that the control point comprises hardware and software for exporting data to be displayed on the display device, in advanced mode of the domotic system where: - the control point generates the data to be displayed and transmits them to the display device; and - the man-machine interface for capture and display develops into a user interface for capture of information relating to data displayed on the display device. - the control point generates the data to be displayed and transmits them to the display device; and - the man-machine interface for capture and display develops into a user interface for capture of information relating to data displayed on the display device.
A method performed by a first mobile communication terminal (306a,306d) for reducing radio interference in the first mobile communication terminal (306a,306d), the first mobile communication terminal operating via at least one downlink resource of a plurality of downlink radio resources in relation to a base station (305a,305b) in a cell in a cellular mobile communication system, the method comprising: - detecting a deterioration of radio reception on at least one downlink radio resource, - determining that the deterioration of radio reception on the at least one downlink radio resource is due to interference (350,352,354) from transmissions by any of a second mobile communication terminal and a third mobile communication terminal involved in a device-to-device communication session, and characterized by further comprising: - transmitting, in a radio resource of the plurality of downlink radio resources, information for triggering any of the second and third mobile communication terminals to perform an inter-frequency handover procedure, and - receiving, in a radio resource of the plurality of downlink radio resources, information identifying the second and third mobile communication terminals, and wherein the transmission of information for triggering the second and third mobile communication terminals to perform an inter-frequency handover procedure comprises: - transmitting a control message requesting the identified second and third mobile communication terminals to perform an inter-frequency handover procedure. - detecting a deterioration of radio reception on at least one downlink radio resource, - determining that the deterioration of radio reception on the at least one downlink radio resource is due to interference (350,352,354) from transmissions by any of a second mobile communication terminal and a third mobile communication terminal involved in a device-to-device communication session, and - transmitting, in a radio resource of the plurality of downlink radio resources, information for triggering any of the second and third mobile communication terminals to perform an inter-frequency handover procedure, and - receiving, in a radio resource of the plurality of downlink radio resources, information identifying the second and third mobile communication terminals, and - transmitting a control message requesting the identified second and third mobile communication terminals to perform an inter-frequency handover procedure.
A composition consisting of: i) microencapsulated clomazone, ii) a dispersant selected from the group consisting of a) a lignin, b) a lignosulfonate salt and c) a lignosulfonate salt combined with the sodium salt of substituted naphthalene sulfonate formaldehyde polymer, iii) at least one salt selected from the group consisting of magnesium sulfate, sodium chloride, sodium nitrate and calcium chloride; iv) a non-encapsulated pesticide selected from the group consisting of napropamide, linuron and metribuzin; v) optionally at least one agent selected from an anti-foam agent, a pH balancing agent, a thickening agent and an anti-microbial agent; and vi) water. i) microencapsulated clomazone, ii) a dispersant selected from the group consisting of a) a lignin, b) a lignosulfonate salt and c) a lignosulfonate salt combined with the sodium salt of substituted naphthalene sulfonate formaldehyde polymer, iii) at least one salt selected from the group consisting of magnesium sulfate, sodium chloride, sodium nitrate and calcium chloride; iv) a non-encapsulated pesticide selected from the group consisting of napropamide, linuron and metribuzin; v) optionally at least one agent selected from an anti-foam agent, a pH balancing agent, a thickening agent and an anti-microbial agent; and vi) water.
A rotating machine comprising: a hub portion, wherein the hub portion comprises an outer circumference, an inner circumference, a face; a ring portion, wherein the ring portion comprises an inner circumference that is metallurgically bonded to the outer circumference of the hub portion along a circumferential bond line; and a cooling channel formed on the face and configured to direct cooling air to the bond line, wherein the cooling channel extends from a radially inner location along the face to a radially outer location along the face, and wherein the cooling channel is configured as a recess formed into an outer surface of the face, wherein the ring portion further comprises an end, wherein the end comprises a circumferential flange extending outward from the end and positioned radially above the bond line, wherein the face of the hub portion includes a circumferential recess radially below the bond line, wherein the flange and the recess define a circumferential bond line channel along both the end and the face that distributes cooling air circumferentially along the bond line, wherein the radially outer location along the face is positioned radially below the circumferential bond line channel, and wherein at the radially outer location the cooling channel joins fluidly with the bond line channel such that the cooling air flows from the cooling channel into the bond line channel. a hub portion, wherein the hub portion comprises an outer circumference, an inner circumference, a face; a ring portion, wherein the ring portion comprises an inner circumference that is metallurgically bonded to the outer circumference of the hub portion along a circumferential bond line; and a cooling channel formed on the face and configured to direct cooling air to the bond line, wherein the cooling channel extends from a radially inner location along the face to a radially outer location along the face, and wherein the cooling channel is configured as a recess formed into an outer surface of the face, wherein the ring portion further comprises an end, wherein the end comprises a circumferential flange extending outward from the end and positioned radially above the bond line, wherein the face of the hub portion includes a circumferential recess radially below the bond line, wherein the flange and the recess define a circumferential bond line channel along both the end and the face that distributes cooling air circumferentially along the bond line, wherein the radially outer location along the face is positioned radially below the circumferential bond line channel, and wherein at the radially outer location the cooling channel joins fluidly with the bond line channel such that the cooling air flows from the cooling channel into the bond line channel.
A rivet-less clip for a rotor disk of a brake assembly, the clip formed of sheet metal to fit in a slot between, and to, ends of adjacent rotor lugs around the periphery of the rotor disk, wherein the clip is shaped to have a main body portion that is substantially rectangular in form and shaped and sized to fit, in use, onto an inner peripheral surface defined by the slot between the ends of two adjacent lugs, and to extend across the length of the slot from a first main body portion edge to a second opposite main body portion edge; and wherein the clip further comprises first and second end portions (302a, 302b) that extend from the respective ends (140a, 140b) of the main body portion at an angle, wherein each end portion comprises an outwardly protruding section (303a, 303b) and an end clip portion (304a, 304b). the outwardly protruding sections being shaped to fit into indentations or recesses between the lug ends and the inner peripheral surface; where the end clip portions each have a planar section (305a, 305b) that, in use, fit flat against respective ends (130a, 130b) of the lugs; characterized in that the clip is formed as two separate halves each having a portion of the main body portion and one of the first and second end portions, wherein the portions of the main body portion of the two halves abut when the clip is located in the slot to together form the main body portion; the clip further comprising side portions extending along and bent down relative to, the sides of the main body portion between the first and second main body portion edges (104a, 104b), the side portions configured to, when the clip is located in the slot on the inner peripheral surface, extend over part of the rotor disk radially inwards of the inner peripheral surface.
Profiled coating knife handle extending along a longitudinal direction, characterized in that it comprises two profiles that are able to move relative to each other in a sliding manner: • a first engagement profile comprising a portion for fastening an edge of a coating blade, connected to a central portion attached to a first engagement portion of a gripping part forming, when viewed in transverse cross section, an open hook having a circular-arc-shaped inner surface, • a second profile (20, 80, 90, 95) comprising, when viewed in transverse cross section, a cylinder (21, 81, 91) having a circular-arc-shaped outer surface (21a, 81a, 91a) that complements the circular-arc-shaped inner surface of the first portion, the cylinder (21, 81, 91) being attached either to an oblong lever body, when viewed in transverse cross section, intended to receive the palm, the thumb and the fingers of the hand of the user, or to a fastening member (83, 92, 96) intended to receive a stick (71, 72, 73): and in that the coating knife handle comprises means (30, 31-32-33-34-35-36-37) for blocking one profile in rotation relative to the other in at least two different angular positions. • a first engagement profile comprising a portion for fastening an edge of a coating blade, connected to a central portion attached to a first engagement portion of a gripping part forming, when viewed in transverse cross section, an open hook having a circular-arc-shaped inner surface, • a second profile (20, 80, 90, 95) comprising, when viewed in transverse cross section, a cylinder (21, 81, 91) having a circular-arc-shaped outer surface (21a, 81a, 91a) that complements the circular-arc-shaped inner surface of the first portion, the cylinder (21, 81, 91) being attached either to an oblong lever body, when viewed in transverse cross section, intended to receive the palm, the thumb and the fingers of the hand of the user, or to a fastening member (83, 92, 96) intended to receive a stick (71, 72, 73): and in that the coating knife handle comprises means (30, 31-32-33-34-35-36-37) for blocking one profile in rotation relative to the other in at least two different angular positions.
A method for managing a battery, characterized in that it includes the following steps: - discharging the battery to a full discharge level and measuring the temperature Tfindch of the battery when the full discharge level is reached; and - charging the battery to a full charge level and measuring the temperature Tfinch of the battery when the full charge level is reached, these two steps of charging then discharging or charging then discharging being consecutive; and - calculating the inaccessible charge quantity Qdch(Tfindch) at the end-of-discharge temperature Tfindch following the step of discharging to a level of full discharge of the battery, knowing the relation giving the inaccessible charge quantity Qdch of the battery as a function of the temperature T, and - calculating the maximum admissible charge quantity Qch(Tfinch) of the battery at the end-of-charge temperature Tfinch, by the relation Qch(Tfinch) = qch + Qdch(Tfindch), where qch corresponds to the quantity of charges transmitted to or released by the battery to change from a full discharge level to a full charge level or vice versa. - discharging the battery to a full discharge level and measuring the temperature Tfindch of the battery when the full discharge level is reached; and - charging the battery to a full charge level and measuring the temperature Tfinch of the battery when the full charge level is reached, - calculating the inaccessible charge quantity Qdch(Tfindch) at the end-of-discharge temperature Tfindch following the step of discharging to a level of full discharge of the battery, knowing the relation giving the inaccessible charge quantity Qdch of the battery as a function of the temperature T, and - calculating the maximum admissible charge quantity Qch(Tfinch) of the battery at the end-of-charge temperature Tfinch, by the relation Qch(Tfinch) = qch + Qdch(Tfindch), where qch corresponds to the quantity of charges transmitted to or released by the battery to change from a full discharge level to a full charge level or vice versa.
A gas turbine engine comprising: first and second arc segments (66; 166) each having leading and trailing sides (66a, 66b) and first and second circumferential sides (66c, 66d), each first circumferential side including a first slot portion and each second circumferential side including a second slot portion, the first slot portion of the first arc segment (66; 166) and the second slot portion of the second arc segment (66; 166) being in registration and together defining a seal slot, at least the first slot portion of the first arc segment (66; 166) having a first concave arced back wall; and a feather seal (74; 174) entrapped in the seal slot, the feather seal (74; 174) including first and second feather seal circumferential sides (74a, 74b), at least the first feather seal circumferential side having a first convex arced edge that is adjacent the first concave arced back wall of the first slot portion. first and second arc segments (66; 166) each having leading and trailing sides (66a, 66b) and first and second circumferential sides (66c, 66d), each first circumferential side including a first slot portion and each second circumferential side including a second slot portion, the first slot portion of the first arc segment (66; 166) and the second slot portion of the second arc segment (66; 166) being in registration and together defining a seal slot, at least the first slot portion of the first arc segment (66; 166) having a first concave arced back wall; and a feather seal (74; 174) entrapped in the seal slot, the feather seal (74; 174) including first and second feather seal circumferential sides (74a, 74b), at least the first feather seal circumferential side having a first convex arced edge that is adjacent the first concave arced back wall of the first slot portion.
Battery changing system of an electric vehicle, in particular an industrial truck, with the following features: • a battery block, which is arranged in a battery compartment of the electric vehicle and is movable substantially in a horizontal direction into the battery compartment and out of the battery compartment, • a changing mechanism comprising a changing device and/or a depositing device for handling and transporting the battery block, • and a device for fixing the battery block in the battery compartment and on the changing mechanism in at least one direction of movement, characterized in that the device for fixing the battery block in the battery compartment and on the changing mechanism is formed by a friction-increasing and slip-inhibiting intermediate layer, which is arranged between the battery block underside and the battery compartment base of the battery compartment of the electric vehicle and between the battery block underside and a standing surface of the changing mechanism that interacts with the battery block underside, the battery block underside being provided with the friction-increasing and slip-inhibiting intermediate layer. • a battery block, which is arranged in a battery compartment of the electric vehicle and is movable substantially in a horizontal direction into the battery compartment and out of the battery compartment, • a changing mechanism comprising a changing device and/or a depositing device for handling and transporting the battery block, • and a device for fixing the battery block in the battery compartment and on the changing mechanism in at least one direction of movement,