mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet production device comprising: a mouthpiece for discharging molten resin in the shape of a sheet ; a cast cooling device for cooling and solidifying the sheet discharged from the mouthpiece while conveying the sheet ; and a pressure-reducing chamber disposed upstream of the mouthpiece in the conveying direction of the cast cooling device for sucking air from between the sheet discharged from the mouthpiece and the cast cooling device to generate a negative-pressure region at the back side of the sheet which side is in contact with the cast cooling device ; characterised by further comprising: two rectification plates disposed downstream of a lip of the mouthpiece in the conveying direction of the cast cooling device and at positions more external than the end positions in the width direction of the sheet discharged from the mouthpiece , wherein the rectification plates are disposed such that a gap between the sheet discharged from the mouthpiece and the cast surface is occluded; wherein a distance between the two rectification plates in the sheet width direction gradually decreases toward downstream of the cast cooling device in the conveying direction. a mouthpiece for discharging molten resin in the shape of a sheet ; a cast cooling device for cooling and solidifying the sheet discharged from the mouthpiece while conveying the sheet ; and a pressure-reducing chamber disposed upstream of the mouthpiece in the conveying direction of the cast cooling device for sucking air from between the sheet discharged from the mouthpiece and the cast cooling device to generate a negative-pressure region at the back side of the sheet which side is in contact with the cast cooling device ; characterised by further comprising: two rectification plates disposed downstream of a lip of the mouthpiece in the conveying direction of the cast cooling device and at positions more external than the end positions in the width direction of the sheet discharged from the mouthpiece , wherein the rectification plates are disposed such that a gap between the sheet discharged from the mouthpiece and the cast surface is occluded; wherein a distance between the two rectification plates in the sheet width direction gradually decreases toward downstream of the cast cooling device in the conveying direction.
A method, performed at a wireless device implementing a Framework for Live Uplink Streaming, FLUS, source , for establishing a streaming session, comprising: registering (S10) the FLUS source at a FLUS sink ; receiving (S14), from the FLUS sink, a request to establish a FLUS session between the FLUS source and the FLUS sink; establishing (S15) the FLUS session, in response to receiving the request from the FLUS sink; and streaming (S18) data, comprising media captured by a capture device , between the FLUS source and the FLUS sink using the FLUS session established. registering (S10) the FLUS source at a FLUS sink ; receiving (S14), from the FLUS sink, a request to establish a FLUS session between the FLUS source and the FLUS sink; establishing (S15) the FLUS session, in response to receiving the request from the FLUS sink; and streaming (S18) data, comprising media captured by a capture device , between the FLUS source and the FLUS sink using the FLUS session established.
A multi-fiber fiber optic receptacle defining a first alignment and keying feature, the fiber optic receptacle comprising: a receptacle housing defining an internal cavity , a multi-fiber receptacle ferrule disposed at least partially within the internal cavity , characterized by a ferrule boot , a spring centering cuff , and a biasing spring , and the biasing spring engages a rear surface of the spring centering cuff , a generally concave forward surface of the spring centering cuff engages a generally convex rear surface of the ferrule boot which engages a rear surface of the receptacle ferrule , to center a spring biasing force generated by the biasing spring substantially on the center of the end face of the receptacle ferrule ; wherein the at least one alignment and keying feature includes a key adapted to be received in slots of a fiber optic plug and further includes an excluding feature for preventing a plug ferrule of dissimilar configuration from being inserted into the receptacle and mated with the receptacle ferrule . a receptacle housing defining an internal cavity , a multi-fiber receptacle ferrule disposed at least partially within the internal cavity , characterized by a ferrule boot , a spring centering cuff , and a biasing spring , and the biasing spring engages a rear surface of the spring centering cuff , a generally concave forward surface of the spring centering cuff engages a generally convex rear surface of the ferrule boot which engages a rear surface of the receptacle ferrule , to center a spring biasing force generated by the biasing spring substantially on the center of the end face of the receptacle ferrule ; wherein the at least one alignment and keying feature includes a key adapted to be received in slots of a fiber optic plug and further includes an excluding feature for preventing a plug ferrule of dissimilar configuration from being inserted into the receptacle and mated with the receptacle ferrule .
A privacy screen filter for attachment to a display screen with a flat privacy screen filter element with a contact side and a viewing side and at least one recess , wherein the recess is assigned a first magnetically active element arranged on the privacy screen filter , and wherein the recess is formed to at least partially accommodate therein a second magnetically active element on the contact side .
A method in a user equipment (UE) , comprising: monitoring a downlink control channel during a duration of at least a first timer , wherein the first timer comprises one of an onDurationTimer of a discontinuous reception, DRX, cycle, a drx-InactivityTimer, and a DRX retransmission timer; receiving , on the monitored downlink control channel, an indication of a downlink or uplink transmission for the UE; after receiving the indication of the downlink or uplink transmission for the UE, stopping the first timer, wherein after the first timer is stopped the UE does not need to monitor the downlink control channel; performing an uplink transmission associated with the indicated downlink or uplink transmission for the UE; starting a second timer , after receiving the indication of the downlink or uplink transmission for the UE, the duration of the second timer comprising an offset period; the method characterized in that , when the second timer expires, starting a third timer , wherein the UE monitors the downlink control channel for the duration of the third timer, and wherein the third timer comprises a drx-InactivityTimer. monitoring a downlink control channel during a duration of at least a first timer , wherein the first timer comprises one of an onDurationTimer of a discontinuous reception, DRX, cycle, a drx-InactivityTimer, and a DRX retransmission timer; receiving , on the monitored downlink control channel, an indication of a downlink or uplink transmission for the UE; after receiving the indication of the downlink or uplink transmission for the UE, stopping the first timer, wherein after the first timer is stopped the UE does not need to monitor the downlink control channel; performing an uplink transmission associated with the indicated downlink or uplink transmission for the UE; starting a second timer , after receiving the indication of the downlink or uplink transmission for the UE, the duration of the second timer comprising an offset period; the method characterized in that , when the second timer expires, starting a third timer , wherein the UE monitors the downlink control channel for the duration of the third timer, and wherein the third timer comprises a drx-InactivityTimer.
A method for imaging an epithelial tissue of a subject, comprising: (a) providing a portable device comprising an optical probe, a relay lens assembly, and a mobile lens in optical communication with the optical probe, wherein the optical probe comprises an optical element disposed adjacent to the epithelial tissue, and wherein the mobile lens is movable with respect to the optical element; (b) using the optical probe to transmit pulses of a single beam of light from a light source through the mobile lens towards a surface of the epithelial tissue, wherein while the pulses of the single beam of light are transmitted, the mobile lens undergoes movement within the portable device relative to the optical element to focus the pulses of the single beam of light within a plurality of different focal planes within the epithelial tissue, and wherein the pulses of the single beam of light, upon contacting the epithelial tissue, generate signals indicative of an intrinsic property of the epithelial tissue across the plurality of different focal planes; (c) using a collection module to collect at least a subset of the signals generated across the plurality of different focal planes upon the pulses of the single beam of light being transmitted from the light source, wherein the optical probe comprises a telecentric objective that maintains a constant numerical aperture; and (d) using a programmed computer processor to process the subset of the signals to generate a depth profile of the epithelial tissue. (a) providing a portable device comprising an optical probe, a relay lens assembly, and a mobile lens in optical communication with the optical probe, wherein the optical probe comprises an optical element disposed adjacent to the epithelial tissue, and wherein the mobile lens is movable with respect to the optical element; (b) using the optical probe to transmit pulses of a single beam of light from a light source through the mobile lens towards a surface of the epithelial tissue, wherein while the pulses of the single beam of light are transmitted, the mobile lens undergoes movement within the portable device relative to the optical element to focus the pulses of the single beam of light within a plurality of different focal planes within the epithelial tissue, and wherein the pulses of the single beam of light, upon contacting the epithelial tissue, generate signals indicative of an intrinsic property of the epithelial tissue across the plurality of different focal planes; (c) using a collection module to collect at least a subset of the signals generated across the plurality of different focal planes upon the pulses of the single beam of light being transmitted from the light source, wherein the optical probe comprises a telecentric objective that maintains a constant numerical aperture; and (d) using a programmed computer processor to process the subset of the signals to generate a depth profile of the epithelial tissue.
A method, comprising: receiving from a first access node, at a communication device served by said first access node, in advance of the first access node entering a dormant, first state in which said first access node is not receiving radio transmissions from the communication device, information about a dormancy pattern for the first access node; determining , at the communication device, that the first access node serving the communication device is currently in the dormant state; and controlling a radio transmitter or radio transceiver at said communication device to transmit a radio signal using the received information about the dormancy pattern, wherein the radio signal triggers at least one second access node to alert said first access node of a request for said first access node to switch from said first state to a second state in which said first access node receives radio transmissions from the communication device. receiving from a first access node, at a communication device served by said first access node, in advance of the first access node entering a dormant, first state in which said first access node is not receiving radio transmissions from the communication device, information about a dormancy pattern for the first access node; determining , at the communication device, that the first access node serving the communication device is currently in the dormant state; and controlling a radio transmitter or radio transceiver at said communication device to transmit a radio signal using the received information about the dormancy pattern, wherein the radio signal triggers at least one second access node to alert said first access node of a request for said first access node to switch from said first state to a second state in which said first access node receives radio transmissions from the communication device.
A multi-step process for heat setting twisted, bulk continuous filament (BCF) yarn comprising the steps of: a) developing crimp in the yarn under hot atmospheric air; and b) heat setting the yarn from step (a) by pressurized steam treatment; wherein step (a) is performed under hot air at a temperature in the range from 140°C to 210°C. a) developing crimp in the yarn under hot atmospheric air; and b) heat setting the yarn from step (a) by pressurized steam treatment;
Vertical axis wind turbine comprising a support base , a shaft extending centrally from the support base , a support frame for a plurality of blades , mounted on the base rotatable with the shaft , and a control frame for the plurality of blades , mounted on the shaft , above the blade support frame ; wherein each blade of the plurality of blades comprises a first half-blade and a second half-blade supported by the blade support frame ; characterized in that the blade control frame comprises a control element mounted rotatably on the shaft , a pin , extending from the control element in an eccentric position with respect to the shaft , a plurality of connecting rods , one for each blade , rotatably supported by the pin and a directional deflector extending from the pin and rotatable integrally with it; and in that each blade comprises a fixed rod associated with the blade support frame and a mobile rod having an end sliding on the blade support frame and another end associated with a respective connecting rod of the blade control frame ; wherein, during the rotation of the turbine , the directional deflector angles toward the direction of the wind flow, thereby fixing an angular position of the pin with respect to the shaft and the mobile rod of each blade rotates following a trajectory (T M ), eccentric with respect to a trajectory (T F ) of the fixed rod , sliding on the blade support frame and thus causing the opening and closing of the blades . wherein each blade of the plurality of blades comprises a first half-blade and a second half-blade supported by the blade support frame ; characterized in that the blade control frame comprises a control element mounted rotatably on the shaft , a pin , extending from the control element in an eccentric position with respect to the shaft , a plurality of connecting rods , one for each blade , rotatably supported by the pin and a directional deflector extending from the pin and rotatable integrally with it; and in that each blade comprises a fixed rod associated with the blade support frame and a mobile rod having an end sliding on the blade support frame and another end associated with a respective connecting rod of the blade control frame ; wherein, during the rotation of the turbine , the directional deflector angles toward the direction of the wind flow, thereby fixing an angular position of the pin with respect to the shaft and the mobile rod of each blade rotates following a trajectory (T M ), eccentric with respect to a trajectory (T F ) of the fixed rod , sliding on the blade support frame and thus causing the opening and closing of the blades .
A luminescent material comprising: second semiconductor nanoparticles that comprise first semiconductor nanoparticles and deposits arranged on the surfaces of the first semiconductor nanoparticles, and that emit light when irradiated with light; and a metal compound in which the second semiconductor nanoparticles are embedded, wherein the first semiconductor nanoparticles comprise M 1 , M 2 , and Z, M 1 is at least one selected from the group consisting of Ag, Cu, Au and alkali metals, and comprises at least Ag, M 2 is at least one selected from the group consisting of Al, Ga, In and Tl, and comprises at least one of In and Ga, Z comprises at least one selected from the group consisting of S, Se, and Te, the first semiconductor nanoparticles have a composition in which a total content ratio of M 1 is 10% by mole or more and 30% by mole or less, a total content ratio of M 2 is 15% by mole or more and 35% by mole or less, and a total content ratio of Z is 35% by mole or more and 55% by mole or less, the deposit comprises a semiconductor that is substantially composed of at least one selected from the group consisting of Al, Ga, In, Tl and alkali metals, and at least one selected from the group consisting of S, O, Se and Te, and the metal compound comprises at least one of Zn and Ga, and at least one of S and O. second semiconductor nanoparticles that comprise first semiconductor nanoparticles and deposits arranged on the surfaces of the first semiconductor nanoparticles, and that emit light when irradiated with light; and a metal compound in which the second semiconductor nanoparticles are embedded, wherein the first semiconductor nanoparticles comprise M 1 , M 2 , and Z, M 1 is at least one selected from the group consisting of Ag, Cu, Au and alkali metals, and comprises at least Ag, M 2 is at least one selected from the group consisting of Al, Ga, In and Tl, and comprises at least one of In and Ga, Z comprises at least one selected from the group consisting of S, Se, and Te, the first semiconductor nanoparticles have a composition in which a total content ratio of M 1 is 10% by mole or more and 30% by mole or less, a total content ratio of M 2 is 15% by mole or more and 35% by mole or less, and a total content ratio of Z is 35% by mole or more and 55% by mole or less, the deposit comprises a semiconductor that is substantially composed of at least one selected from the group consisting of Al, Ga, In, Tl and alkali metals, and at least one selected from the group consisting of S, O, Se and Te, and the metal compound comprises at least one of Zn and Ga, and at least one of S and O.
A central connector for a universal joint comprising: a substantially cylindrical body formed about an X-axis; a first pair of arms that are integral to the body and equidistant from the X-axis, wherein said first pair of arms are positioned at a first end of the body , and wherein the first pair of arms define openings configured to receive a male axle positioned on a Z-axis orthogonal to the X-axis; a second pair of arms that are integral to the body and equidistant from the X-axis, wherein said second pair of arms are positioned at a second end of the body opposite to the first end , and wherein the second pair of arms are oriented such that they are orthogonal to the first pair of arms , and wherein the second pair of arms define openings configured to receive a female axle positioned on a Y-axis orthogonal to both the X-axis and the Z-axis; and characterized in that the body further includes a male spherically concave surface between the first pair of arms and having an apex that substantially coincides with the X-axis, a female spherically concave surface between the second pair of arms and having an apex that substantially coincides with the X-axis. a substantially cylindrical body formed about an X-axis; a first pair of arms that are integral to the body and equidistant from the X-axis, wherein said first pair of arms are positioned at a first end of the body , and wherein the first pair of arms define openings configured to receive a male axle positioned on a Z-axis orthogonal to the X-axis; a second pair of arms that are integral to the body and equidistant from the X-axis, wherein said second pair of arms are positioned at a second end of the body opposite to the first end , and wherein the second pair of arms are oriented such that they are orthogonal to the first pair of arms , and wherein the second pair of arms define openings configured to receive a female axle positioned on a Y-axis orthogonal to both the X-axis and the Z-axis; and characterized in that the body further includes a male spherically concave surface between the first pair of arms and having an apex that substantially coincides with the X-axis, a female spherically concave surface between the second pair of arms and having an apex that substantially coincides with the X-axis.
An active aerostatic bearing comprising a first plate with a central recess area (R) including an orifice (O) forming an inlet restrictor for pressurized air from a central nozzle (N), the pressurized air forming an air gap between a guiding surface (S) and the first plate , further comprising a force actuator (VC, M, 11) acting to deform the first plate and thus changing the shape of the air gap, characterized in that the actuator (VC, M, 11) causes a conical deformation of the first plate , and in that the first plate , a second plate and four pivoting points (P1, P2, P3, P4) are forming a parallelogram, the shape of the parallelogram being changeable by actuating the actuator (VC, M, 11).
A method for diagnosing the presence of prostate cancer in a subject, comprising: (a) selecting a subject suspected of having or being at risk of having prostate cancer, wherein the subject shows an increased PSA level, (b) detecting the level of filamin A in a biological sample of the subject, and (c) comparing the level of filamin A in the biological sample with the level of filamin A in a control sample from a subject having benign prostatic hyperplasia (BPH), wherein a level of filamin A in the biological sample above the level of filamin A in the control sample indicates the presence of prostate cancer in the subject.