mhurhangee/ep-ind-claims huggingface dataset:
Cooling system for cooling at least one heat generating radio unit (4, 6, 8) in an active antenna system unit, the cooling system comprising at least one fan and an air duct, where each heat generating radio unit (4, 6, 8) to be cooled by the cooling system is arranged connected to a heat sink unit (16, 18, 20) comprising cooling fins (22, 24, 26, 28, 30, 32), the heat sink unit (16, 18, 20) being arranged to transfer heat between the radio unit (4, 6, 8) and the ambient air, where the at least one fan is arranged to generate a primary air flow of ambient air in the air duct between at least one air duct inlet and at least one air duct outlet, wherein the air duct is arranged to extend in the longitudinal direction of the active antenna system unit along each of the said heat sink units (16, 18, 20) and to border on each of the said heat sink units (16, 18, 20), thus arranging the primary air flow generated in the air duct to flow substantially in the longitudinal direction of the active antenna system unit, where the cooling fins (22, 24, 26, 28, 30, 32) are arranged oriented at an angle being not zero degrees with respect to the longitudinal direction of the active antenna system unit, wherein the at least one air duct outlet is arranged to direct a air flow of ambient air over the number of cooling fins (22, 24, 26, 28, 30, 32), of each of said heat sink units (16, 18, 20), thus generating a secondary air flow of ambient air over the number of cooling fins (22, 24, 26, 28, 30, 32) of each of said heat sink units (16, 18, 20), wherein the at least one air duct outlet is arranged along a longitudinal side of the active antenna system unit, wherein a gap size of the air duct outlet is arranged with a narrowing gap size along the longitudinal direction of the active antenna system unit.
Spacer device with angular adjustment for bridging the gap between a first support and a second support arranged opposite the first support, the spacer device comprising: - a fastener intended to be rigidly connected to the first support and having an internal thread; - a spacer having an external thread and a support end with a spherical tip; - a drive ring comprising a hooking system, the drive ring being housed in the spacer and coupled thereto; the fastener and the spacer being interconnected at their respective threads (2c, 3c) and being movable relative to one other in an axial direction in order to adjust the spacer device to the distance separating the two supports, the spacer device comprising a support ring held against the spacer and retained by the hooking device of the drive ring, the support ring having a first flat face for bearing on the second support, and a second face with a spherical dome receiving the support end with a spherical tip of the spacer. - a fastener intended to be rigidly connected to the first support and having an internal thread; - a spacer having an external thread and a support end with a spherical tip; - a drive ring comprising a hooking system, the drive ring being housed in the spacer and coupled thereto;
Method for controlling a process for winding an acentric coil former, wherein the coil former is set into a rotary motion by means of a winder drive, wherein a rotary motion of the coil former causes a wire attached thereto to be wound onto the coil former and unwound from a drum which is associated with a brake drive, characterised by the winder drive and/or the brake drive being controlled on the basis of a respective rotational position of the coil former.
Process to mitigate the unwanted popcorn formation of a cross-linked polymer having internal mechanical strain comprising the steps of: a) providing an installation in which unwanted popcorn formation of a cross-linked polymer may occur, with at least one resonant piezo electric transducer being attached outside of said installation; b) counting the acoustic emissions generated by said cross-linked polymer formation originating by the sudden break of the polymer with said at least one resonant piezo electric transducer and comparing the number of acoustic emissions counted per unit of time with at least one predefined threshold; and c) intervening on said installation in order to limit the unwanted popcorn formation of a cross-linked polymer when the number of acoustic emissions counted per unit of time of step b) is higher than said at least one predefined threshold; characterized in that the step of counting the acoustic emissions is done by detecting the second harmonic of said acoustic emissions. a) providing an installation in which unwanted popcorn formation of a cross-linked polymer may occur, with at least one resonant piezo electric transducer being attached outside of said installation; b) counting the acoustic emissions generated by said cross-linked polymer formation originating by the sudden break of the polymer with said at least one resonant piezo electric transducer and comparing the number of acoustic emissions counted per unit of time with at least one predefined threshold; and c) intervening on said installation in order to limit the unwanted popcorn formation of a cross-linked polymer when the number of acoustic emissions counted per unit of time of step b) is higher than said at least one predefined threshold;
A transparent display device comprising: a first substrate including pixel areas, wherein each of the pixel areas includes an emitting area, wherein a light-emitting structure is provided in the emitting area of the first substrate, and a transmitting area, the transmitting area configured to transmit external light therethrough, a second substrate facing the first substrate; and an anti-reflection, hereinafter called AR, structure (901, 902) on at least one of the first and the second substrate (100, 700) and covering the emitting areas and the transmitting areas of the pixel areas, wherein the AR structure (901, 902) includes a reflection-preventing layer (921b, 922) and a color-compensating layer (931, 932) stacked on each other, and the color-compensating layer (931, 932) includes a blue dye or a blue pigment in order to compensate for a color variation realized by insulating films (240, 130, 140, 150, 160) stacked on the transmitting area. a first substrate including pixel areas, wherein each of the pixel areas includes an emitting area, wherein a light-emitting structure is provided in the emitting area of the first substrate, and a transmitting area, the transmitting area configured to transmit external light therethrough, a second substrate facing the first substrate; and an anti-reflection, hereinafter called AR, structure (901, 902) on at least one of the first and the second substrate (100, 700) and covering the emitting areas and the transmitting areas of the pixel areas, wherein the AR structure (901, 902) includes a reflection-preventing layer (921b, 922) and a color-compensating layer (931, 932) stacked on each other, and the color-compensating layer (931, 932) includes a blue dye or a blue pigment in order to compensate for a color variation realized by insulating films (240, 130, 140, 150, 160) stacked on the transmitting area.
An internal combustion engine comprising a cylinder block, and a guide member, the cylinder block having a plurality of cylinder bores (3, 4, 5, 6) arranged side by side in a crank axis direction, and a water jacket surrounding the plurality of cylinder bores (3, 4, 5, 6), the cylinder block having a coolant passage, the coolant passage being provided in an inter-bore portion between the adjacent cylinder bores of the plurality of cylinder bores (3, 4, 5, 6), the coolant passage having an inlet opened to the water jacket and an outlet opened at an upper surface of the cylinder block, and the guide member being disposed in the water jacket, the guide member including a guide, and the guide being configured to guide coolant to the inlet of the coolant passage, wherein the guide member has a communication hole for introducing the coolant into the inlet of the coolant passage, wherein the guide member is a water jacket spacer and characterized in that the guide projects in an outer peripheral direction of the water jacket and in that the guide is located downstream of the communication hole. the cylinder block having a plurality of cylinder bores (3, 4, 5, 6) arranged side by side in a crank axis direction, and a water jacket surrounding the plurality of cylinder bores (3, 4, 5, 6), the cylinder block having a coolant passage, the coolant passage being provided in an inter-bore portion between the adjacent cylinder bores of the plurality of cylinder bores (3, 4, 5, 6), the coolant passage having an inlet opened to the water jacket and an outlet opened at an upper surface of the cylinder block, and the guide member being disposed in the water jacket, the guide member including a guide, and the guide being configured to guide coolant to the inlet of the coolant passage, wherein the guide member has a communication hole for introducing the coolant into the inlet of the coolant passage, wherein the guide member is a water jacket spacer and characterized in that the guide projects in an outer peripheral direction of the water jacket and in that the guide is located downstream of the communication hole.
A fluid pump for droplet deposition comprising: an array of pressure chambers (1108, 1112, 1220, 1230, 1320, 1330) arranged side by side in an array direction, a displaceable wall (1110; 1112; 1202, 1204, 1206; 1304, 1306, 1308, 1310, 1312; 1508, 1510, 1516; 1604, 1606, 1608, 1610) dividing adjacent first and second pressure chambers (1108, 1112, 1220, 1230, 1320, 1330) and comprising piezoelectric material polarised in a direction parallel to said array direction and electrode means (1102, 1104) for applying an electric field thereto, said first and second pressure chambers (1108 1112, 1220, 1230, 1320, 1330) each comprising a nozzle through which droplets may be ejected; and wherein the displaceable wall (1110; 1112; 1202, 1204, 1206; 1304, 1306, 1308, 1310, 1312; 1508, 1510, 1516; 1604, 1606, 1608, 1610) is disposed so as to be able under an electric field applied between said electrode means (1102, 1104 to displace a volume in a first one of said adjacent chambers that is different to a volume displaced in the other, second, adjacent chamber; characterised by comprising conductive coatings which are applied to opposing forces of said displacable wall (1110; 1122;.....). an array of pressure chambers (1108, 1112, 1220, 1230, 1320, 1330) arranged side by side in an array direction, a displaceable wall (1110; 1112; 1202, 1204, 1206; 1304, 1306, 1308, 1310, 1312; 1508, 1510, 1516; 1604, 1606, 1608, 1610) dividing adjacent first and second pressure chambers (1108, 1112, 1220, 1230, 1320, 1330) and comprising piezoelectric material polarised in a direction parallel to said array direction and electrode means (1102, 1104) for applying an electric field thereto, said first and second pressure chambers (1108 1112, 1220, 1230, 1320, 1330) each comprising a nozzle through which droplets may be ejected; and wherein the displaceable wall (1110; 1112; 1202, 1204, 1206; 1304, 1306, 1308, 1310, 1312; 1508, 1510, 1516; 1604, 1606, 1608, 1610) is disposed so as to be able under an electric field applied between said electrode means (1102, 1104 to displace a volume in a first one of said adjacent chambers that is different to a volume displaced in the other, second, adjacent chamber; characterised by comprising conductive coatings which are applied to opposing forces of said displacable wall (1110; 1122;.....).
Method for rearranging a container flow (5.1), conveyed via a conveying segment, of containers standing upright, into a rearranged container flow (5.2) which is further conveyed via a star-shaped conveyor, in which rearranged container flow the containers which are each arranged in a container receptacle (7.1) of the star-shaped conveyor, are spaced from each other by a separation distance that corresponds to the distance between the container receptacles (7.1), wherein the containers of the conveyed container flow (5.1) are spaced from one another at a separating element provided at the conveying segment, and are conveyed individually to the star-shaped conveyor, wherein a rearranging segment (33.1) is arranged between the separating element and the star-shaped conveyor, on which segment, by means in each case of at least one carrier element of a rearranging device, forming the separation distance, the containers are moved onwards, wherein the containers are moved onwards by means of a plurality of carrier elements arranged at the separation distance, which are arranged at a chain-type or band-type element, driven such as to circulate, characterised in that as a separation element, use is made of a separator star, circulating about an axis parallel or essentially parallel to the axis of the containers, which comprises at its circumference a plurality of pocket-type container receptacles (37.1) open on the circumference side, for receiving one container in each case, and which is arranged laterally to the conveying segment in such a way that, at the rotation of the separating star by one division of its container receptacles (37.1), in each case the first container in the conveying direction of the conveyed container flow (5.1) is taken up by a container receptacle (37.1) of the separating star, and, at a further rotation of the separating star, is conveyed by one division further towards the rearranging segment (33.1), and wherein the star-shaped conveyor is driven in synchrony with the rearranging device and the separating star, and specifically in such a way in a direction that the circumferential speed of the star-shaped conveyor is the same or essentially the same as the speed at which the carrier element moves along the rearranging segment (33.1).
Article handling machine comprising a frame for receiving article handling elements, a roof covering said frame, a catwalk, on one lateral side of the machine, wherein the catwalk is pivotally mounted on the frame between an extended position in which it protrudes in a direction substantially perpendicular to the lateral side, with an inner edge facing the machine lateral side, and a folded position in which it stretches out in a direction substantially parallel to the lateral side, characterized in that the catwalk is positioned at roof-height.
Sliding element having a metal protective layer, having a porous metal carrier layer which is applied to the protective layer and having a sliding material which is applied to the porous carrier layer or impregnated in the porous carrier layer and which has a thermoplastic matrix material and a PTFE additive, wherein the PTFE additive has at least two different types of PTFE with different molecular weights.
Coupling comprising a first component and a second component and a spring-loaded entrainer which latter is spring-mounted to said first component, said second component furthermore being mounted so as to be rotatable relative to said first component, said second component being capable of rotating in a first direction of rotation - the freewheeling direction - and a second opposite direction of rotation - the blocking direction, said second component furthermore having guide means designed so as to prevent the spring-loaded entrainer from engaging the guide means during rotation of the second component in the freewheeling direction but to allow the spring-loaded entrainer to engage said guide means and thus result in the guide means entraining the spring-loaded entrainer against a spring force in the blocking direction, during rotation of the second component in the blocking direction, said first component furthermore having a first locating surface upon which said spring-loaded entrainer rests in its starting position - during rotation of said second component in the freewheeling direction - said first component furthermore having a second locating surface with which the spring-loaded entrainer makes contact as it is being guided by the guide means along the second component during rotation in the blocking direction, with the spring-loaded entrainer being guided along the second locating surface in such a manner that - during rotation in the blocking direction - the spring-loaded entrainer guided by the guide means of the second component will be released from its engagement with the guide means against a spring force, whereupon the spring-loaded retainer will return to its starting position where it makes contact with said first locating surface.
Rope comprising: - a core extending along a longitudinal axis; - a sheath surrounding the core, the sheath extending along the longitudinal axis; - a strap at least partially covering the sheath over a section perpendicular to the longitudinal axis, the strap being separated from the core by the sheath; - a seam formed by means of at least one thread passing several times through the strap, the sheath and the core to form several links to attach the strap fixedly on the core and on the sheath; rope characterised in that the links pass through a central section of the core, the central section corresponding to a circular section representing less than 50% of the cross-section of the core and in that the links are angularly offset from one another when observed along the longitudinal axis. - a core extending along a longitudinal axis; - a sheath surrounding the core, the sheath extending along the longitudinal axis; - a strap at least partially covering the sheath over a section perpendicular to the longitudinal axis, the strap being separated from the core by the sheath; - a seam formed by means of at least one thread passing several times through the strap, the sheath and the core to form several links to attach the strap fixedly on the core and on the sheath;
An injection molding machine comprising: a plasticizing cylinder connected to a cavity space (801, 802) formed in a mold unit and melting a molding material to mold a molding product in the cavity space (801, 802); and a control unit configured to control temperature raising of the plasticizing cylinder, based on a temperature of the mold unit and a set time. a plasticizing cylinder connected to a cavity space (801, 802) formed in a mold unit and melting a molding material to mold a molding product in the cavity space (801, 802); and a control unit configured to control temperature raising of the plasticizing cylinder, based on a temperature of the mold unit and a set time.
Eyewear, comprising: a frame; one or more stems (102, 103) extending distally from the frame; one or more processors disposed within one or more of the frame or the one or more stems (102, 103); one or more proximity sensor components (119, 120, 121) disposed within the one or more stems (102, 103) and operable with the one or more processors, each proximity sensor component (119, 120, 121) comprising an infrared signal receiver to receive an infrared emission from an object; the one or more processors operable to execute a control operation when the one or more proximity sensor components (119, 120, 121) receive the infrared emission from the object; characterized in that the one or more stems (102, 103) each comprise a temple portion and an ear engagement portion, the one or more proximity sensor components (119, 120, 121) disposed along the ear engagement portion. a frame; one or more stems (102, 103) extending distally from the frame; one or more processors disposed within one or more of the frame or the one or more stems (102, 103); one or more proximity sensor components (119, 120, 121) disposed within the one or more stems (102, 103) and operable with the one or more processors, each proximity sensor component (119, 120, 121) comprising an infrared signal receiver to receive an infrared emission from an object; the one or more processors operable to execute a control operation when the one or more proximity sensor components (119, 120, 121) receive the infrared emission from the object; characterized in that the one or more stems (102, 103) each comprise a temple portion and an ear engagement portion, the one or more proximity sensor components (119, 120, 121) disposed along the ear engagement portion.
A method for recalibrating an electronic nose adapted to characterise target compounds present in a gas sample introduced into a measurement chamber, the same including at least one sensitive site (23 k) having receptors with which the target compounds are able to interact by adsorption/desorption, the electronic nose including a processing unit in which a first correction function ( f k ref 0, h k ref 0) expressing a variation in a parameter representative of the measurement signal associated with a reference gas as a function of a relative humidity is pre-recorded, the method including the following steps: o successively injecting (311, 411), into the measurement chamber, reference gases containing no target compounds, the reference gases injected one after the other having different predetermined non-zero relative humidity values ( φ); o determining (312, 412), during each injection, a measurement signal (S k (t i)) representative of the interactions of the receptors with the reference gas present, at different measurement times, in response to an excitation signal emitted at the sensitive site (23 k), then determining, for each reference gas, a reference value ( S ̃ k b) representative of the measurement signal (S k (t i)) determined, associated with the relative humidity (φ) of the reference gas present; o determining (314, 414) a second correction function ( f k ref 1, h k ref 1) expressing a variation in a parameter ( S ̃ k b; Δ S ̃ k b) representative of the measurement signal associated with the reference gas as a function of the relative humidity (φ; Δφ), from the reference values ( S ̃ k b) determined and the predetermined relative humidity values (φ), the second correction function ( f k ref 1, h k ref 1) then being recorded in the processing unit as a replacement for the first correction function ( f k ref 0, h k ref 0). o successively injecting (311, 411), into the measurement chamber, reference gases containing no target compounds, the reference gases injected one after the other having different predetermined non-zero relative humidity values ( φ); o determining (312, 412), during each injection, a measurement signal (S k (t i)) representative of the interactions of the receptors with the reference gas present, at different measurement times, in response to an excitation signal emitted at the sensitive site (23 k), then determining, for each reference gas, a reference value ( S ̃ k b) representative of the measurement signal (S k (t i)) determined, associated with the relative humidity (φ) of the reference gas present; o determining (314, 414) a second correction function ( f k ref 1, h k ref 1) expressing a variation in a parameter ( S ̃ k b; Δ S ̃ k b) representative of the measurement signal associated with the reference gas as a function of the relative humidity (φ; Δφ), from the reference values ( S ̃ k b) determined and the predetermined relative humidity values (φ), the second correction function ( f k ref 1, h k ref 1) then being recorded in the processing unit as a replacement for the first correction function ( f k ref 0, h k ref 0).