mhurhangee/ep-ind-claims huggingface dataset:
A method for fabricating a component from powder, comprising: (a) cold compacting powder to create a pre-form; (b) placing the pre-form between smart susceptors (18, 20) of an induction tool assembly; (c) flooding a space inside the induction tool assembly with an oxygen-free gas; (d) heating the smart susceptors (18,2 0) to a leveling temperature by applying a varying low-strength magnetic field having a magnetic flux that passes through surfaces of the smart susceptors (18, 20); (e) applying consolidation pressure to the pre-form at least during a time period subsequent to the temperature of the smart susceptors (18, 20) reaching the leveling temperature; and (f) while consolidation pressure is being applied, applying a pulsed high-strength magnetic field having a magnetic flux that passes through a surface of the pre-form; wherein the strength of the high-strength magnetic field is greater than a peak strength of the low-strength magnetic field, the strength and pulse rate of the high-strength magnetic field are selected so that the crystallographic phase of the pre-form will rapidly oscillate at a substantially constant temperature, and the pulsed high-strength magnetic field is applied sufficiently long that superplasticity of the pre-form is attained during phase oscillation; wherein the strength of the high-strength magnetic field is greater than or equal to 0.5 tesla and the strength of the low-strength magnetic field is less than 0.1 tesla. (a) cold compacting powder to create a pre-form; (b) placing the pre-form between smart susceptors (18, 20) of an induction tool assembly; (c) flooding a space inside the induction tool assembly with an oxygen-free gas; (d) heating the smart susceptors (18,2 0) to a leveling temperature by applying a varying low-strength magnetic field having a magnetic flux that passes through surfaces of the smart susceptors (18, 20); (e) applying consolidation pressure to the pre-form at least during a time period subsequent to the temperature of the smart susceptors (18, 20) reaching the leveling temperature; and (f) while consolidation pressure is being applied, applying a pulsed high-strength magnetic field having a magnetic flux that passes through a surface of the pre-form;
A Mycobacterium Smegmatis porin (Msp) having a vestibule and a constriction zone that define a tunnel, wherein the Msp comprises a mutant MspA comprising a mutation at positions 90, 91 and 93, wherein the mutation at position 90 is D90N, the mutation at position 91 is D91N, and the mutation at position 93 is D93N.
Process for the manufacture of 1,1,1,2,3,3-hexafluoropropane, characterized in that (i) hexafluoropropene is reacted in the gas phase with hydrogen in a superstoichiometric amount at a temperature of between 50 and 200°C in the presence of a hydrogenation catalyst; (ii) a portion of the gaseous output stream resulting from the reactor, comprising 1,1,1,2,3,3-hexafluoropropane and unreacted hydrogen, is recycled and (iii) 1,1,1,2,3,3-hexafluoropropane is recovered from the other portion of the gaseous output stream resulting from the reactor, optionally after a purification stage.
A communication jack for compensating for a source of near-end crosstalk in a mated communication plug over a range of signal operating frequencies, the mated plug including a plurality of plug contacts, the communication jack comprising: a housing having a first face with a plug receiving aperture therein; a plurality of plug interface contacts including a plug contact point approximately where said plug contacts engage said plug interface contacts; and a plurality of conductive path pairs, each said conductive path pair extending from a pair of corresponding plug interface contacts located at said plug receiving aperture to a pair of corresponding output terminals, at least one combination of said conductive path pairs including a single stage of crosstalk compensation with opposite polarity of said near-end crosstalk of said plug, said single stage of crosstalk compensation cancelling substantially all of said near-end crosstalk of said plug, said single stage of crosstalk compensation being located a physical distance from said plug contact point, said physical distance being selected such that for a 250 MHz signal there is a maximum of a 3.0 degree phase shift between said plug contact point and said single stage of crosstalk compensation; wherein said single stage of crosstalk compensation is located on a first circuit board and said first circuit board is connected to said plug interface contacts beyond where said plug contacts engage said plug interface contacts. a housing having a first face with a plug receiving aperture therein; a plurality of plug interface contacts including a plug contact point approximately where said plug contacts engage said plug interface contacts; and a plurality of conductive path pairs, each said conductive path pair extending from a pair of corresponding plug interface contacts located at said plug receiving aperture to a pair of corresponding output terminals, at least one combination of said conductive path pairs including a single stage of crosstalk compensation with opposite polarity of said near-end crosstalk of said plug, said single stage of crosstalk compensation cancelling substantially all of said near-end crosstalk of said plug, said single stage of crosstalk compensation being located a physical distance from said plug contact point, said physical distance being selected such that for a 250 MHz signal there is a maximum of a 3.0 degree phase shift between said plug contact point and said single stage of crosstalk compensation; wherein said single stage of crosstalk compensation is located on a first circuit board and said first circuit board is connected to said plug interface contacts beyond where said plug contacts engage said plug interface contacts.
A method of generating transform limited sub-nanosecond (sub-ns) pulses at the output of a chirped pulse amplification,CPA, laser system which is configured with a mode-locked laser source emitting nearly transform limited,TL, sub-nanosecond pulses along a path, a first Bragg grating,BG, stretching TL pulses, and a second BG recompressing the chirped pulses, the method comprising: calibrating at least one of the first or second BGs, the calibrated BG having a plurality of spaced segments, wherein the calibration includes: determining a segment to frequency correspondence across the one BG, and determining a temperature to spectral phase dependence or voltage to spectral phase dependence across the one BG; calculating a phase correction for each segment across a spectrum of each compressed pulse, thereby obtaining a desired voltage or temperature profile; and applying the desired temperature or voltage profile to the one BG, thereby selectively actuating the segments to tune the one BG so as to output the near transform limited compressed sub-ns pulses. calibrating at least one of the first or second BGs, the calibrated BG having a plurality of spaced segments, wherein the calibration includes: determining a segment to frequency correspondence across the one BG, and determining a temperature to spectral phase dependence or voltage to spectral phase dependence across the one BG; determining a segment to frequency correspondence across the one BG, and determining a temperature to spectral phase dependence or voltage to spectral phase dependence across the one BG; calculating a phase correction for each segment across a spectrum of each compressed pulse, thereby obtaining a desired voltage or temperature profile; and applying the desired temperature or voltage profile to the one BG, thereby selectively actuating the segments to tune the one BG so as to output the near transform limited compressed sub-ns pulses.
A radio communication terminal comprising: a receiving section configured to receive a control information, including an ACK/NACK index, using a physical resource block, PRB, set that forms an enhanced physical downlink control channel, E-PDCCH, the PRB set including one or more PRBs; a control section configured to monitor a PRB set out of defined PRB sets and to determine an ACK/NACK resource to be used for an ACK/NACK signal acknowledging downlink data based on both the monitored PRB set and the ACK/NACK index included in the E-PDCCH of the monitored PRB set, the ACK/NACK index indicating the ACK/NACK resource from among ACK/NACK resource candidates sets which are configured for each of the defined PRB set by radio resource control, RRC; wherein based on the configuration information of the E-PDCCH used for transmission or reception of the E-PDCCH and on the ACK/NACK index, the control section determines the ACK/NACK resource from among the ACK/NACK resource candidates, and determines a virtual cell ID to be used to generate a base sequence of a physical uplink control channel, PUCCH, for transmitting the ACK/NACK signal, a hopping pattern or cyclic shift, CS, hopping pattern, from among specified virtual cell IDs; and a transmitting section transmits the ACK/NACK signal using the selected ACK/NACK resource and the selected virtual cell ID. a receiving section configured to receive a control information, including an ACK/NACK index, using a physical resource block, PRB, set that forms an enhanced physical downlink control channel, E-PDCCH, the PRB set including one or more PRBs; a control section configured to monitor a PRB set out of defined PRB sets and to determine an ACK/NACK resource to be used for an ACK/NACK signal acknowledging downlink data based on both the monitored PRB set and the ACK/NACK index included in the E-PDCCH of the monitored PRB set, the ACK/NACK index indicating the ACK/NACK resource from among ACK/NACK resource candidates sets which are configured for each of the defined PRB set by radio resource control, RRC; wherein based on the configuration information of the E-PDCCH used for transmission or reception of the E-PDCCH and on the ACK/NACK index, the control section determines the ACK/NACK resource from among the ACK/NACK resource candidates, and determines a virtual cell ID to be used to generate a base sequence of a physical uplink control channel, PUCCH, for transmitting the ACK/NACK signal, a hopping pattern or cyclic shift, CS, hopping pattern, from among specified virtual cell IDs; and a transmitting section transmits the ACK/NACK signal using the selected ACK/NACK resource and the selected virtual cell ID.
A fusion antibody comprising: (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A; and (b) an immunoglobulin light chain; wherein the fusion antibody crosses the blood brain barrier via an endogenous transferrin receptor. (a) a fusion protein comprising the amino acid sequences of an immunoglobulin heavy chain and an arylsulfatase A; and (b) an immunoglobulin light chain; wherein
A system, comprising: a light source configured to generate a structured light pattern and operable to emit that structured light pattern outward into an environment; a first reflective surface and a second reflective surface, the first and the second reflective surfaces (112a, 112b) positioned with respect to the light source to concurrently receive light returned from an object in the environment as the structured light pattern, the second reflective surface oriented at a non-zero angle with respect to the first reflective surface; a light sensor positioned to concurrently detect, in parallax, light reflected from the object in the environment via both the first and the second reflective surfaces (112a, 112b), respectively as a first instance of the structured light pattern reflected from the first reflective surface and a second instance of the structured light pattern reflected from the second reflective surface; and at least one processor (134, 136, 138) communicatively coupled to the light sensor, and which is configured to correlate a relative position of the first and the second instances of the structured light pattern detected by the light sensor and is configured to determine at least one dimension related to the object based at least in part on the correlation of the relative positions of the first and the second instances of the structured light pattern detected by the light sensor; characterized in that the non-zero angle between the first and the second reflective surfaces (112a, 112b) is an obtuse angle that is less than 180 degrees. a light source configured to generate a structured light pattern and operable to emit that structured light pattern outward into an environment; a first reflective surface and a second reflective surface, the first and the second reflective surfaces (112a, 112b) positioned with respect to the light source to concurrently receive light returned from an object in the environment as the structured light pattern, the second reflective surface oriented at a non-zero angle with respect to the first reflective surface; a light sensor positioned to concurrently detect, in parallax, light reflected from the object in the environment via both the first and the second reflective surfaces (112a, 112b), respectively as a first instance of the structured light pattern reflected from the first reflective surface and a second instance of the structured light pattern reflected from the second reflective surface; and at least one processor (134, 136, 138) communicatively coupled to the light sensor, and which is configured to correlate a relative position of the first and the second instances of the structured light pattern detected by the light sensor and is configured to determine at least one dimension related to the object based at least in part on the correlation of the relative positions of the first and the second instances of the structured light pattern detected by the light sensor; characterized in that the non-zero angle between the first and the second reflective surfaces (112a, 112b) is an obtuse angle that is less than 180 degrees.
Planetary gearbox which comprises: - a sun gear which rotates about a rotational axis of the planetary gearbox and is driven by a sun shaft, the rotational axis defining an axial direction of the planetary gearbox, - a plurality of planetary gears which are driven by the sun gear, - an internal gear, with which the plurality of planetary gears are in engagement, and - a plurality of planetary plain bearing pins which in each case have an outer-side bearing face which has an axially front end and an axially rear end, - in each case one planetary plain bearing pin being arranged in a planetary gear, and the planetary plain bearing pin and the planetary gear forming a lubricated plain bearing, and - the planetary plain bearing pin being provided with an axial bore and having an inner face which has an axially front end and an axially rear end, - the internal diameter (m) of the axial bore of the planetary plain bearing pin varying between the axially front end and the axially rear end of the inner face and having a maximum here at at least one axial end (691, 692), and - the planetary plain bearing pins in each case configuring a convexity on their bearing face, in the sense that their external diameter (e) decreases from a maximum external diameter towards at least one axial end (65, 66) of the bearing face and has a minimum at the axial end (65, 66), characterized in that the planetary plain bearing pin has an axially front end and an axially rear end which are spaced apart axially from the axially front end and the axially rear end of the inner face, the planetary plain bearing pin being fastened at its front axial end to a front carrier plate (81, 810) and at its rear axial end to a rear carrier plate (82, 820) or being configured in one piece with the said carrier plates. - a sun gear which rotates about a rotational axis of the planetary gearbox and is driven by a sun shaft, the rotational axis defining an axial direction of the planetary gearbox, - a plurality of planetary gears which are driven by the sun gear, - an internal gear, with which the plurality of planetary gears are in engagement, and - a plurality of planetary plain bearing pins which in each case have an outer-side bearing face which has an axially front end and an axially rear end, - in each case one planetary plain bearing pin being arranged in a planetary gear, and the planetary plain bearing pin and the planetary gear forming a lubricated plain bearing, and - the planetary plain bearing pin being provided with an axial bore and having an inner face which has an axially front end and an axially rear end, - the internal diameter (m) of the axial bore of the planetary plain bearing pin varying between the axially front end and the axially rear end of the inner face and having a maximum here at at least one axial end (691, 692), and - the planetary plain bearing pins in each case configuring a convexity on their bearing face, in the sense that their external diameter (e) decreases from a maximum external diameter towards at least one axial end (65, 66) of the bearing face and has a minimum at the axial end (65, 66),
A cowling structure for a straddle-type vehicle, the cowling structure comprising: a front cowling covering a vehicle front portion from a front side, wherein a lamp unit is installed inside the front cowling, wherein a lower surface of the front cowling is inclined obliquely downward to a rear side, wherein the lamp unit includes: a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion (41a, 41b) configured to adjust an optical axis of the lamp, characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion (41a, 41b) is configured to receive an operation with a tool, through the first ventilation hole. a front cowling covering a vehicle front portion from a front side, wherein a lamp unit is installed inside the front cowling, wherein a lower surface of the front cowling is inclined obliquely downward to a rear side, wherein the lamp unit includes: a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion (41a, 41b) configured to adjust an optical axis of the lamp, characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion (41a, 41b) is configured to receive an operation with a tool, through the first ventilation hole. a lamp configured to illuminate a front of a vehicle; and an optical axis adjustment portion (41a, 41b) configured to adjust an optical axis of the lamp, characterised in that the lower surface is formed with a first ventilation hole through which traveling wind blows, and the optical axis adjustment portion (41a, 41b) is configured to receive an operation with a tool, through the first ventilation hole.
Inhibitor of microRNA 19a and/or microRNA 19b for use in a method of treating or preventing a disease or pathological condition that is associated with bone loss or reduced muscle function, or for treating or preventing cancer-related bone destruction.
A method for communicating data from a flame detector, the method comprising: detecting, by the flame detector, ambient characteristics in a field of view of the flame detector to detect a fire event, wherein the ambient characteristics include an amount of electromagnetic radiation, in the field of view of the flame detector; communicating, by the flame detector, event data, captured by the flame detector elating to the detected fire event, to a wireless device in a proximity to the flame detector, wherein the event data comprise fire pic data and optionally audio data; forwarding, by the wireless device, the event data to a cloud database; accessing, by a central server, the event data via the cloud database; simulating, by the central server, the detected fire event based on the event data, accessed from the cloud database, using a fire replay technique, to identify an error associated with the flame detector; generating instructions for correcting the identified error; and communicating the generated instructions to the flame detector for remote diagnosis of the flame detector. detecting, by the flame detector, ambient characteristics in a field of view of the flame detector to detect a fire event, wherein the ambient characteristics include an amount of electromagnetic radiation, in the field of view of the flame detector; communicating, by the flame detector, event data, captured by the flame detector elating to the detected fire event, to a wireless device in a proximity to the flame detector, wherein the event data comprise fire pic data and optionally audio data; forwarding, by the wireless device, the event data to a cloud database; accessing, by a central server, the event data via the cloud database; simulating, by the central server, the detected fire event based on the event data, accessed from the cloud database, using a fire replay technique, to identify an error associated with the flame detector; generating instructions for correcting the identified error; and communicating the generated instructions to the flame detector for remote diagnosis of the flame detector.
A system for delivering a gel-forming fluid, comprising: • a first reservoir comprising a first flowable composition in the form of an aqueous solution of ionically cross-linkable alginate, said solution containing 0.3-7 wt.% of the alginate; • a second reservoir comprising a second flowable composition, said second flowable composition containing 30-100 wt.% of one or more polyols; and optionally up to 50 wt.% of water; • a first outlet from the first reservoir; • a second outlet from the second reservoir, • said first outlet and said second outlet being arranged in such a way that the first flowable composition is mixed with the second flowable composition when both compositions are simultaneously expelled from the respective reservoirs, thereby forming the gel-forming fluid; wherein (i) the first and/or second flowable composition contains 0.1-5 wt.% of an inactive cross-linking agent and the second flowable composition contains 0.01-5 wt.% of an activator or (ii) the second flowable composition contains 0.5-50 wt.% of an active cross-linking agent; and wherein upon admixture of the first flowable composition with the second flowable composition the cross-linking agent initiates the formation of a solid or semi-solid ionically cross-linked alginate gel. • a first reservoir comprising a first flowable composition in the form of an aqueous solution of ionically cross-linkable alginate, said solution containing 0.3-7 wt.% of the alginate; • a second reservoir comprising a second flowable composition, said second flowable composition containing 30-100 wt.% of one or more polyols; and optionally up to 50 wt.% of water; • a first outlet from the first reservoir; • a second outlet from the second reservoir, • said first outlet and said second outlet being arranged in such a way that the first flowable composition is mixed with the second flowable composition when both compositions are simultaneously expelled from the respective reservoirs, thereby forming the gel-forming fluid;