mhurhangee/patent-ind-claim-en huggingface dataset:
Adjustment device for an RF resonant circuit of an NMR probe head , characterized in that the adjustment device comprises a plurality of movable elements which are arranged in succession, adjacent movable elements mutually engaging in each case so as to be movable relative to one another in a limited range, in that the movable elements each comprise at least one electrical functional part (20; 20a-20b) for adjusting the RF resonant circuit and N outwardly oriented electrical contact elements (15; 15a-15b; 23, 24), where N is a natural number ≥ 1, each electrical functional part (20; 20a-20b) comprising at least two functional part terminals , and the electrical contact elements (15; 15a-15b; 23, 24) each being connected to a functional part terminal , in that the adjustment device further comprises a first connection assembly for slidingly contacting at least a portion of the movable elements from the outside in order to contact the contact elements (15; 15a-15b; 23, 24) of the movable elements depending on the movement position of the movable elements , wherein the respective at least one electrical functional part (20; 20a-20b) of the plurality of movable elements can be electrically contacted via the first connection assembly , and in that the adjustment device further comprises a movement device , by means of which one movable element of the movable elements can be moved. in that the movable elements each comprise at least one electrical functional part (20; 20a-20b) for adjusting the RF resonant circuit and N outwardly oriented electrical contact elements (15; 15a-15b; 23, 24), where N is a natural number ≥ 1, each electrical functional part (20; 20a-20b) comprising at least two functional part terminals , and the electrical contact elements (15; 15a-15b; 23, 24) each being connected to a functional part terminal , in that the adjustment device further comprises a first connection assembly for slidingly contacting at least a portion of the movable elements from the outside in order to contact the contact elements (15; 15a-15b; 23, 24) of the movable elements depending on the movement position of the movable elements , wherein the respective at least one electrical functional part (20; 20a-20b) of the plurality of movable elements can be electrically contacted via the first connection assembly , and in that the adjustment device further comprises a movement device , by means of which one movable element of the movable elements can be moved.
Leg pulling device having a traction device for exerting a pulling force on a leg of a patient , a supporting device , and two guide carriages perpendicular to each other, wherein the supporting device can be arranged relative to the traction device such that the supporting device supports the patient counter to the pulling force exerted by the traction device , wherein the supporting device and/or the traction device have/has at least one sensor, with which at least one force or at least one pressure exerted on the patient by the supporting device upon actuation of the traction device can be measured, and the supporting device can be mounted on a lying surface by means of two mutually perpendicular guide carriages (9; 10), wherein the guide carriages (9; 10) are oriented in those directions in which the force components can be measured by force sensors (13; 14).
A method for forming an optical device, the method comprising: forming a light pipe with a roughened sidewall surface , wherein sidewalls of the light pipe are coated with a cladding layer; coupling the light pipe to a light emitter ; and coupling an assembly comprising the light pipe and the light emitter to a spatial light modulator . forming a light pipe with a roughened sidewall surface , wherein sidewalls of the light pipe are coated with a cladding layer; coupling the light pipe to a light emitter ; and coupling an assembly comprising the light pipe and the light emitter to a spatial light modulator .
Set of elements for the realization of a lighting device to be mounted in a protruding way on a covering installation or structure , comprising at least one lighting element which includes: - a body inside which at least one light source is positioned, - at least a transmission portion which is configured to allow, at least in part, the transmission to the external environment of the light generated by said light source, - a cable for powering said light source, which protrudes from said body , said set of elements also comprising: - a casing configured to completely house the body of said at least one lighting element , said casing comprising at least one opening for insertion inside the casing itself of the body of a corresponding lighting element and at least one opening (8") of the cable of said at least one lighting element towards the outside of said casing , and - at least one visible annular element to be associated with the body of a corresponding lighting element so that, when the body of said lighting element is completely housed and hidden in said casing , said at least one visible annular element and said transmission portion of said at least one lighting element are visible from the outside of said casing , and characterized by the fact to be configured so that, when the body of said at least one lighting element , to which a corresponding visible annular element has been previously associated, is inserted inside the casing , said opening for the insertion of said body is completely closed and the area of said casing that surrounds said opening remains visible. - a body inside which at least one light source is positioned, - at least a transmission portion which is configured to allow, at least in part, the transmission to the external environment of the light generated by said light source, - a cable for powering said light source, which protrudes from said body , - a casing configured to completely house the body of said at least one lighting element , said casing comprising at least one opening for insertion inside the casing itself of the body of a corresponding lighting element and at least one opening (8") of the cable of said at least one lighting element towards the outside of said casing , and - at least one visible annular element to be associated with the body of a corresponding lighting element so that, when the body of said lighting element is completely housed and hidden in said casing , said at least one visible annular element and said transmission portion of said at least one lighting element are visible from the outside of said casing ,
An actuator for driving a damper between an open position and a closed position, comprising: - an actuator housing having an interior portion, the interior portion including: - a gear configured to rotate as the damper is opened and closed; - a cluster pinion coupled to the gear and rotating with the gear ; - a locker rotatably coupled to a stopper and having a range of motion limited by the stopper ; - the stopper being fixedly coupled to an interior surface in the interior portion, the stopper including a rib extending outwardly and limiting the range of motion of the locker , wherein the rib is configured to deform at a temperature exceeding a threshold and permit rotational movement of the locker towards the cluster pinion to engage the cluster pinion ; and - a spring coupled to the locker , the spring configured to bias the locker against the rib and towards the cluster pinion . - an actuator housing having an interior portion, the interior portion including: - a gear configured to rotate as the damper is opened and closed; - a cluster pinion coupled to the gear and rotating with the gear ; - a locker rotatably coupled to a stopper and having a range of motion limited by the stopper ; - the stopper being fixedly coupled to an interior surface in the interior portion, the stopper including a rib extending outwardly and limiting the range of motion of the locker , wherein the rib is configured to deform at a temperature exceeding a threshold and permit rotational movement of the locker towards the cluster pinion to engage the cluster pinion ; and - a spring coupled to the locker , the spring configured to bias the locker against the rib and towards the cluster pinion . - a gear configured to rotate as the damper is opened and closed; - a cluster pinion coupled to the gear and rotating with the gear ; - a locker rotatably coupled to a stopper and having a range of motion limited by the stopper ; - the stopper being fixedly coupled to an interior surface in the interior portion, the stopper including a rib extending outwardly and limiting the range of motion of the locker , wherein the rib is configured to deform at a temperature exceeding a threshold and permit rotational movement of the locker towards the cluster pinion to engage the cluster pinion ; and - a spring coupled to the locker , the spring configured to bias the locker against the rib and towards the cluster pinion .
A charging control method for a lithium ion secondary battery that calculates an integrated value of a number of charged times, the method comprising: adding a predetermined value to the integrated value of the number of charged times of the lithium ion secondary battery if both a residual voltage that is a voltage value of the lithium ion secondary battery before beginning of charging and an elapsed time from a time of previous charging of the lithium ion secondary battery are not less than predetermined values; and estimating a life of the lithium ion secondary battery based on the integrated value of the number of charged times. adding a predetermined value to the integrated value of the number of charged times of the lithium ion secondary battery if both a residual voltage that is a voltage value of the lithium ion secondary battery before beginning of charging and an elapsed time from a time of previous charging of the lithium ion secondary battery are not less than predetermined values; and estimating a life of the lithium ion secondary battery based on the integrated value of the number of charged times.
A method of securing a textile, the method comprising: overlaying a pin pattern template on an adjustable jig , the pin pattern template having a plurality of pin indicator sites , the adjustable jig comprising: a frame ; a first axis and a second axis, the first axis substantially perpendicular to the second axis; a plurality of plates disposed within the frame, each of the plurality of plates comprising one or more pin attachment sites for securing a textile to the jig, each of the plurality of plates displaceable in a direction substantially perpendicular to the first axis; and means for securing the plurality of plates in the first axis and/or the second axis; attaching a pin to one or more of the plates; independently moving one or more of the plates until each of the pins is disposed substantially at a pin indicator site, to define a pin pattern ; securing the plurality of plates within the frame; and attaching the textile to the adjustable jig using the pins. a frame ; a first axis and a second axis, the first axis substantially perpendicular to the second axis; a plurality of plates disposed within the frame, each of the plurality of plates comprising one or more pin attachment sites for securing a textile to the jig, each of the plurality of plates displaceable in a direction substantially perpendicular to the first axis; and means for securing the plurality of plates in the first axis and/or the second axis; attaching a pin to one or more of the plates; independently moving one or more of the plates until each of the pins is disposed substantially at a pin indicator site, to define a pin pattern ; securing the plurality of plates within the frame; and attaching the textile to the adjustable jig using the pins.
A method for transmitting control information by a base station in a wireless communication system, the method comprising: receiving feedback information on an analog beam from a plurality of user equipments, UEs; grouping (S100) the plurality of UEs into a first group of UEs and a second group of UEs based on the feedback information, wherein the first group of UEs and the second group of UEs are located in a first area and a second area different from the first area, respectively; multiplexing (S110) control information for the first group of UEs and control information for the second group of UEs; and transmitting the control information for the first group of UEs to the first group of UEs in a first time-frequency resource based on an analog beam for the first group of UEs and the control information for the second group of UEs to the second group of UEs in a second time-frequency resource based on an analog beam for the second group of UEs, wherein the first time-frequency resource and the second time-frequency resource are different from each other, wherein the beam for the first group of UEs and the beam for the second group of UEs are restricted to the first area and the second area respectively, based on an analog beamforming characteristic in a hybrid beamformer, and characterised in that grouping (S100) includes that a predefined analog beam for the first group of UEs is shifted such that a beamforming gain for a UE having a lowest signal quality among the first group of UEs is maximized. receiving feedback information on an analog beam from a plurality of user equipments, UEs; grouping (S100) the plurality of UEs into a first group of UEs and a second group of UEs based on the feedback information, wherein the first group of UEs and the second group of UEs are located in a first area and a second area different from the first area, respectively; multiplexing (S110) control information for the first group of UEs and control information for the second group of UEs; and transmitting the control information for the first group of UEs to the first group of UEs in a first time-frequency resource based on an analog beam for the first group of UEs and the control information for the second group of UEs to the second group of UEs in a second time-frequency resource based on an analog beam for the second group of UEs, wherein the first time-frequency resource and the second time-frequency resource are different from each other, wherein the beam for the first group of UEs and the beam for the second group of UEs are restricted to the first area and the second area respectively, based on an analog beamforming characteristic in a hybrid beamformer, and characterised in that grouping (S100) includes that a predefined analog beam for the first group of UEs is shifted such that a beamforming gain for a UE having a lowest signal quality among the first group of UEs is maximized.
A light emitting device comprising: a substrate ; a light-emitting diode chip mounted on the substrate ; a Zener diode chip mounted next to the light-emitting diode chip on the substrate ; a frame-like dam material formed on the substrate to surround the light-emitting diode chip and the Zener diode chip ; and a light-reflective resin injected inside the dam material to coat side surfaces of the light-emitting diode chip and side surfaces and an upper surface of the Zener diode chip , wherein a part of the frame-like dam material swells outward to surround three of the side surfaces of the Zener diode chip , the light-reflective resin flows into a gap under the Zener diode chip and serves as an underfill, and the light-reflective resin flows into a gap under the light-emitting diode chip and serves as an underfill. a substrate ; a light-emitting diode chip mounted on the substrate ; a Zener diode chip mounted next to the light-emitting diode chip on the substrate ; a frame-like dam material formed on the substrate to surround the light-emitting diode chip and the Zener diode chip ; and a light-reflective resin injected inside the dam material to coat side surfaces of the light-emitting diode chip and side surfaces and an upper surface of the Zener diode chip , wherein a part of the frame-like dam material swells outward to surround three of the side surfaces of the Zener diode chip , the light-reflective resin flows into a gap under the Zener diode chip and serves as an underfill, and the light-reflective resin flows into a gap under the light-emitting diode chip and serves as an underfill.
An apparatus comprising: (a) an electronic hardware device; and (b) a liquid cooling medium, wherein said electronic hardware device is at least partially submerged in said liquid cooling medium, wherein said liquid cooling medium comprises saturated medium chain triglycerides which consists of triglycerides having a fatty acid carbon chain length of 8 carbon atoms in an amount ranging from 50 to 60 weight percent based on the entire medium chain triglyceride weight and triglycerides having a fatty acid carbon chain length of 10 carbon atoms in an amount ranging from 40 to 50 weight percent based on the entire medium chain triglyceride weight; and wherein said electronic hardware device is a computer device or computer component. (a) an electronic hardware device; and (b) a liquid cooling medium,
An apparatus comprising: a vibration sensor to sense a vibration occurring in connection with the operation of a motorized vehicle ; and a circuit arranged to: compare the sensed vibration to previously recognized vibration patterns corresponding to maintenance issues and previously recognized vibration patterns corresponding to safety issues; based on the comparison, determine whether the sensed vibration corresponds to a maintenance issue or to an immediate safety issue; in response to a determination that the sensed vibration corresponds to a maintenance issue, transmit data indicative of the sensed vibration to a remotely disposed data center for storage and analysis; and in response to a determination that the sensed vibration corresponds to an immediate safety issue, display an alert on an onboard display of the motorized vehicle to alert an operator of the motorized vehicle. a vibration sensor to sense a vibration occurring in connection with the operation of a motorized vehicle ; and a circuit arranged to: compare the sensed vibration to previously recognized vibration patterns corresponding to maintenance issues and previously recognized vibration patterns corresponding to safety issues; based on the comparison, determine whether the sensed vibration corresponds to a maintenance issue or to an immediate safety issue; in response to a determination that the sensed vibration corresponds to a maintenance issue, transmit data indicative of the sensed vibration to a remotely disposed data center for storage and analysis; and in response to a determination that the sensed vibration corresponds to an immediate safety issue, display an alert on an onboard display of the motorized vehicle to alert an operator of the motorized vehicle. compare the sensed vibration to previously recognized vibration patterns corresponding to maintenance issues and previously recognized vibration patterns corresponding to safety issues; based on the comparison, determine whether the sensed vibration corresponds to a maintenance issue or to an immediate safety issue; in response to a determination that the sensed vibration corresponds to a maintenance issue, transmit data indicative of the sensed vibration to a remotely disposed data center for storage and analysis; and in response to a determination that the sensed vibration corresponds to an immediate safety issue, display an alert on an onboard display of the motorized vehicle to alert an operator of the motorized vehicle.
A method of generating a pilot tone for an optical telecommunications system, characterized in that the method comprises: providing digital data having a data rate, for transmission to a destination node; modulating the digital data at a pilot tone frequency lower than the data rate, to provide a modulated digital output; and converting the modulated digital output to an analog signal to generate the pilot tone. providing digital data having a data rate, for transmission to a destination node; modulating the digital data at a pilot tone frequency lower than the data rate, to provide a modulated digital output; and converting the modulated digital output to an analog signal to generate the pilot tone.
An apparatus comprising: multiple ports configured to be coupled to multiple optical fibers and to transmit first optical signals and receive second optical signals over the optical fibers; a signal source configured to generate a first additional optical signal for inclusion with the first optical signals; a signal detector configured to detect a second additional optical signal included with the second optical signals; at least one pump configured to generate Raman pump power; at least one multiplexer configured to inject the Raman pump power onto at least one of the optical fibers; and a switch configured to selectively couple the signal source to one of the ports , the switch configured to couple the signal source to different ones of the ports in different configurations of the switch , wherein the different configurations of the switch are based on whether the Raman pump power is used for forward or backward Raman amplification. multiple ports configured to be coupled to multiple optical fibers and to transmit first optical signals and receive second optical signals over the optical fibers; a signal source configured to generate a first additional optical signal for inclusion with the first optical signals; a signal detector configured to detect a second additional optical signal included with the second optical signals; at least one pump configured to generate Raman pump power; at least one multiplexer configured to inject the Raman pump power onto at least one of the optical fibers; and a switch configured to selectively couple the signal source to one of the ports , the switch configured to couple the signal source to different ones of the ports in different configurations of the switch , wherein the different configurations of the switch are based on whether the Raman pump power is used for forward or backward Raman amplification.