mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selectively manufacturing a radioisotope, the method comprising: selecting the radioisotope; identifying a target material from which the selected radioisotope can be created as a fission product; determining a recoil distance of the selected radioisotope in the target material; creating a plurality of grains of target material having a grain size based on the recoil distance of the selected radioisotope; exposing the grains of target material to neutrons, thereby causing at least some atoms of the target material to undergo nuclear fission to create atoms of the selected radioisotope and also causing at least some of the newly created atoms of the selected radioisotope to move the recoil distance relative to the target material; and extracting atoms of the selected radioisotope from the target material. selecting the radioisotope; identifying a target material from which the selected radioisotope can be created as a fission product; determining a recoil distance of the selected radioisotope in the target material; creating a plurality of grains of target material having a grain size based on the recoil distance of the selected radioisotope; exposing the grains of target material to neutrons, thereby causing at least some atoms of the target material to undergo nuclear fission to create atoms of the selected radioisotope and also causing at least some of the newly created atoms of the selected radioisotope to move the recoil distance relative to the target material; and extracting atoms of the selected radioisotope from the target material.
Cranial drilling device comprising: - at least a substantially tubular stopping member having an end supporting portion positionable in contact on the surface of a skull; - at least a milling device with a first end fitted with a hollow cutter and with a second end fitted with an attachment element able to connect said milling device to a rotating spindle and comprising a substantially elongated central member placed between said first end and said second end, said hollow cutter being at least partly fitted rotatable in said stopping member and being movable along said stopping member ; - adjusting means able to adjust the position of said hollow cutter with respect to said stopping member wherein said adjusting means comprise at least a ring nut element associated integral with said stopping member and associated movable with said central member and sliding means of said ring nut element along said central member characterized by the fact that said adjusting means further comprise locking means able to maintain said ring nut element in a stable position with respect to said central member , and by the fact that said locking means comprise at least a protruding element associated with at least one of said central member and said ring nut element , and at least a housing seat made on the other of said central member and said ring nut element , wherein said protruding element is engageable in said housing seat . - at least a substantially tubular stopping member having an end supporting portion positionable in contact on the surface of a skull; - at least a milling device with a first end fitted with a hollow cutter and with a second end fitted with an attachment element able to connect said milling device to a rotating spindle and comprising a substantially elongated central member placed between said first end and said second end, said hollow cutter being at least partly fitted rotatable in said stopping member and being movable along said stopping member ; - adjusting means able to adjust the position of said hollow cutter with respect to said stopping member
System for delivering positive pressure therapy by a CPAP ventilator to a patient having a health disorder, the system comprising: a pulse oximeter; means for analysing a signal from the pulse oximeter and processing the pulse oximeter signal; and a feedback controller, characterized by said means being adapted to remove signals indicative of heart rate and leave signals indicative of respiratory rate for determining patient respiratory effort and for forming a patient effort signal; and said feedback controller being arranged to receive the patient effort signal, the feedback controller being arranged to control the positive pressure therapy to the patient by controlling the ventilator in response to the patient effort signal, wherein in the absence of respiratory flow limitation, persistently high respiratory effort indicates inadequate pressure support. a pulse oximeter; means for analysing a signal from the pulse oximeter and processing the pulse oximeter signal; and a feedback controller, characterized by said means being adapted to remove signals indicative of heart rate and leave signals indicative of respiratory rate for determining patient respiratory effort and for forming a patient effort signal; and said feedback controller being arranged to receive the patient effort signal, the feedback controller being arranged to control the positive pressure therapy to the patient by controlling the ventilator in response to the patient effort signal, wherein in the absence of respiratory flow limitation, persistently high respiratory effort indicates inadequate pressure support.
A release device for detaching a medical implant from an insertion device , in which the implant can be released by a relative movement between a first and a second insertion element , comprising - a body having a proximal end and a distal end and at least a passage for at least one insertion element and wherein the at least one insertion element is a shaft of a catheter, - a first actuator provided between the proximal and distal ends and configured and adapted to establish a positive connection and/or a non-positive connection to at least one insertion element when the at least one insertion element is put in the at least one passage, wherein the first actuator can be tilted about an axis substantially perpendicularly to at least one of the insertion elements to induce the relative movement in one direction by means of the positive connection and/or a non-positive connection, - a second actuator provided between the proximal and distal ends and configured and adapted to establish a positive connection and/or a non-positive connection to at least one insertion element when the at least one insertion element is put in the at least one passage, wherein the second actuator can be tilted about an axis substantially perpendicularly to at least one of the insertion elements to induce the relative movement in opposite direction to the one direction by means of the positive connection and/or a non-positive connection, characterized by - an operating element configured to induce the tilting movement of the first actuator or the second actuator in longitudinal direction . - a body having a proximal end and a distal end and at least a passage for at least one insertion element and wherein the at least one insertion element is a shaft of a catheter, - a first actuator provided between the proximal and distal ends and configured and adapted to establish a positive connection and/or a non-positive connection to at least one insertion element when the at least one insertion element is put in the at least one passage, wherein the first actuator can be tilted about an axis substantially perpendicularly to at least one of the insertion elements to induce the relative movement in one direction by means of the positive connection and/or a non-positive connection, - a second actuator provided between the proximal and distal ends and configured and adapted to establish a positive connection and/or a non-positive connection to at least one insertion element when the at least one insertion element is put in the at least one passage, wherein the second actuator can be tilted about an axis substantially perpendicularly to at least one of the insertion elements to induce the relative movement in opposite direction to the one direction by means of the positive connection and/or a non-positive connection, characterized by - an operating element configured to induce the tilting movement of the first actuator or the second actuator in longitudinal direction .
An afterburner system , installable downstream of an engine core of a turbofan engine , the afterburner system including: a core plug defining a radially inner surface of a first core flow duct which is configured to receive a core exhaust flow produced by the engine core; a second core flow duct located in the core plug , and having one or more entrances from the first core flow duct for diversion into the second core flow duct of a portion of the core exhaust flow, and further having an exit therefrom for re-joining the diverted portion of the core exhaust flow to the undiverted portion of the core exhaust flow; one or more respective doors for the entrances to the second core flow duct , the doors being open during normal operation of the engine but being closable, during a reheat operation, to at least partially block the entrances to the second core flow duct; and one or more fuel injectors and one or more respective igniters operable, during the reheat operation, to respectively inject and ignite fuel within the second core flow duct, thereby providing a reheat flow into the core exhaust flow from the exit of the second core flow duct. a core plug defining a radially inner surface of a first core flow duct which is configured to receive a core exhaust flow produced by the engine core; a second core flow duct located in the core plug , and having one or more entrances from the first core flow duct for diversion into the second core flow duct of a portion of the core exhaust flow, and further having an exit therefrom for re-joining the diverted portion of the core exhaust flow to the undiverted portion of the core exhaust flow; one or more respective doors for the entrances to the second core flow duct , the doors being open during normal operation of the engine but being closable, during a reheat operation, to at least partially block the entrances to the second core flow duct; and one or more fuel injectors and one or more respective igniters operable, during the reheat operation, to respectively inject and ignite fuel within the second core flow duct, thereby providing a reheat flow into the core exhaust flow from the exit of the second core flow duct.
A feedstock line for additively manufacturing an object , the feedstock line having a length and comprising: a continuous flexible line , having a peripheral surface ; and a covering , releasably coupled to the peripheral surface of the continuous flexible line ; and wherein the covering fully and circumferentially encloses the peripheral surface of the continuous flexible line ; and wherein the continuous flexible line comprises elongate filaments , extending along all of the length of the feedstock line , and a resin , at least partially covering the elongate filaments . a continuous flexible line , having a peripheral surface ; and a covering , releasably coupled to the peripheral surface of the continuous flexible line ; and wherein the covering fully and circumferentially encloses the peripheral surface of the continuous flexible line ; and wherein the continuous flexible line comprises elongate filaments , extending along all of the length of the feedstock line , and a resin , at least partially covering the elongate filaments .
A fiber optic connector , comprising: a ferrule configured to support at least one optical fiber ; a ferrule holder from which the ferrule extends; a housing in which the ferrule holder is received; a connector body coupled to the housing and configured to retain the ferrule holder within the housing , the connector body having a front portion at least partially received in the housing and a rear portion at least partially outside of the housing ; and a strain relief assembly , comprising: a support coupled to the rear portion of the connector body , wherein the support includes a first portion defining a front end of the support , a second portion defining a back end of the support , and a transition region between the first and second portions ; and a boot received over the support , wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; characterized in that the second portion of the support has a stiffness less than the first portion , and that the boot is received over the first portion of the support and extends rearwardly over the transition region and the second portion . a ferrule configured to support at least one optical fiber ; a ferrule holder from which the ferrule extends; a housing in which the ferrule holder is received; a connector body coupled to the housing and configured to retain the ferrule holder within the housing , the connector body having a front portion at least partially received in the housing and a rear portion at least partially outside of the housing ; and a strain relief assembly , comprising: a support coupled to the rear portion of the connector body , wherein the support includes a first portion defining a front end of the support , a second portion defining a back end of the support , and a transition region between the first and second portions ; and a boot received over the support , wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; a support coupled to the rear portion of the connector body , wherein the support includes a first portion defining a front end of the support , a second portion defining a back end of the support , and a transition region between the first and second portions ; and a boot received over the support , wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; characterized in that the second portion of the support has a stiffness less than the first portion , and that the boot is received over the first portion of the support and extends rearwardly over the transition region and the second portion .
A cup dispensing mechanism for dispensing cups from a nested cup stack, comprising a ring and a splitting mechanism for splitting off an individual cup from the base of the stack, wherein the ring is rotatable from a first position to a second position to drive the splitting mechanism and at least initiate the splitting of a cup from the base of the stack, and characterised in that the dispensing mechanism further comprises a means for preventing free rotation of the ring from the first position in the direction of the second position, wherein the means for preventing free rotation of the ring comprises a detent located on a frame which at least partially surrounds said ring and a projection extending from the ring , wherein the projection is arranged to engage the detent to prevent free rotation of the ring and that the ring and projection have a stiffness, whereby the ring deforms resiliently when the projection passes over the detent as the ring is rotated.
Cosmetic preparation comprising hexyl 2-[4-(diethylamino)-2-hydroxybenzoyl]benzoate (INCI: Diethylamino Hydroxybenzoyl Hexyl Benzoate) and hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil), wherein the preparation comprises hydrogenated rapeseed oil (INCI: Hydrogenated Rapeseed Oil) as hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil) and the preparation is free from propyl paraben and butyl paraben, 3-iodo-2-propynyl butylcarbamate, hydroxyisohexylcyclohex-3-enecarboxaldehyde (Lyral), 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (oxybenzone) and 2-ethylhexyl 4-methoxycinnamate (Ethylhexyl Methoxycinnamate). hexyl 2-[4-(diethylamino)-2-hydroxybenzoyl]benzoate (INCI: Diethylamino Hydroxybenzoyl Hexyl Benzoate) and hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil), wherein the preparation comprises hydrogenated rapeseed oil (INCI: Hydrogenated Rapeseed Oil) as hydrogenated vegetable oil (INCI: Hydrogenated Vegetable Oil) and the preparation is free from propyl paraben and butyl paraben, 3-iodo-2-propynyl butylcarbamate, hydroxyisohexylcyclohex-3-enecarboxaldehyde (Lyral), 3-(4-methylbenzylidene)camphor, 2-hydroxy-4-methoxybenzophenone (oxybenzone) and 2-ethylhexyl 4-methoxycinnamate (Ethylhexyl Methoxycinnamate).
Recharging device for electrical equipment (EQ), in particular for an electric vehicle, the recharging device (DIS) being intended to be connected to a supply network (R) delivering at least one alternating input voltage (Ve(t)) to the recharging device, the recharging device being configured to supply the electrical equipment with at least one continuous output voltage (Vs(t)), the recharging device comprising: - an input terminal (E) intended to be connected to the supply network (R); - an output terminal (S) intended to be connected to the electrical equipment (EQ); - a filter module (MF) comprising a filter input terminal (Ef) connected to the input terminal (E) of the recharging device, and a filter output terminal (Sf), the filter module (MF) being configured to provide a filter output voltage (Vsf(t)) via the filter output terminal (Sf), characterized in that the recharging device further comprises a feedback module (MR) coupled to the filter module (MF) and comprising a feedback input terminal (Er) connected to the filter output terminal (Sf) and a feedback output terminal (Sr) connected to the filter input terminal (Ef), the feedback module being configured to generate a feedback voltage (Vsr(t)) from the filter output voltage (Vsf(t)) and for outputting the feedback voltage via the feedback output terminal (Sr) in order to compensate for disturbances in the input voltage (Ve(t)) resulting from a non-linear behavior of the recharging device (DIS), said feedback voltage (Vsr(t)) being in opposition with the input voltage (Ve(t)) of the recharging device, opposition meaning that, at an instant when the input voltage Ve(t) is at a local maximum, the feedback voltage is at a local minimum, and vice versa with a local minimum of the input voltage and a local maximum of the feedback voltage. - an input terminal (E) intended to be connected to the supply network (R); - an output terminal (S) intended to be connected to the electrical equipment (EQ); - a filter module (MF) comprising a filter input terminal (Ef) connected to the input terminal (E) of the recharging device, and a filter output terminal (Sf), the filter module (MF) being configured to provide a filter output voltage (Vsf(t)) via the filter output terminal (Sf),
An M-output, where M>1, pulse amplification chain with frequency drift, comprising: - a stretcher of stretching factor tx_stretch, - M amplifiers (20 1 , ....20 M ) in cascade, - M output compressors (30 1 , ....30 M ) respectively placed at the output of each amplifier, said amplification chain further comprising: - a partial compression device placed between the stretcher and the first amplifier, this partial compression device having at least one partial compression ratio, the one (or more) partial compression ratio(s) being lower than tx_stretch, and - an optical switch configured to receive a beam output from the stretcher and to direct it directly to the first amplifier (20 1 ) of the cascade or to the partial compression device depending on the output compressor chosen among the M output compressors. - a stretcher of stretching factor tx_stretch, - M amplifiers (20 1 , ....20 M ) in cascade, - M output compressors (30 1 , ....30 M ) respectively placed at the output of each amplifier, said amplification chain further comprising: - a partial compression device placed between the stretcher and the first amplifier, this partial compression device having at least one partial compression ratio, the one (or more) partial compression ratio(s) being lower than tx_stretch, and - an optical switch configured to receive a beam output from the stretcher and to direct it directly to the first amplifier (20 1 ) of the cascade or to the partial compression device depending on the output compressor chosen among the M output compressors.
A method of coding video data, the method comprising: coding at least a portion of a picture of an independently decodable non-base layer of a multi-layer bitstream; coding, in a slice header of the picture, a picture order count, POC, least significant bit, LSB, value indicating the value of the least significant bits of the POC of the picture; coding, in a slice header, a syntax element indicating a POC value reset index, indicating a picture order count, POC, value reset for the POC least significant bits,LSB, value of the picture only when the picture has a POC LSB value for the picture equal to zero; and coding, when the picture has a POC LSB value that is not equal to zero, the POC value reset index syntax element to a value other than 2, wherein the value 2 specifies that both the most significant bits, MSBs, and the LSBs of the POC value for the current picture may be reset. coding at least a portion of a picture of an independently decodable non-base layer of a multi-layer bitstream; coding, in a slice header of the picture, a picture order count, POC, least significant bit, LSB, value indicating the value of the least significant bits of the POC of the picture; coding, in a slice header, a syntax element indicating a POC value reset index, indicating a picture order count, POC, value reset for the POC least significant bits,LSB, value of the picture only when the picture has a POC LSB value for the picture equal to zero; and coding, when the picture has a POC LSB value that is not equal to zero, the POC value reset index syntax element to a value other than 2, wherein the value 2 specifies that both the most significant bits, MSBs, and the LSBs of the POC value for the current picture may be reset.
An operation method of a base station in a communication network, comprising: transmitting, to a user equipment (UE), a plurality of physical downlink shared channels (PDSCHs) in consecutive subframes of an unlicensed band; receiving hybrid automatic repeat request (HARQ) responses to the plurality of PDSCHs from the UE; and when a size of a first subframe belonging to the consecutive subframes is 1 millisecond, changing a size of a contention window (CW) based only on a first HARQ response among the HARQ responses, and when the size of the first subframe is less than 1 millisecond, changing the size of the CW based on the first HARQ response and a second HARQ response among the HARQ responses, wherein the first HARQ response is a HARQ response to a first PDSCH which has been transmitted in the first subframe, and the second HARQ response is a HARQ response to a second PDSCH which has been transmitted in a second subframe belonging to the consecutive subframes. transmitting, to a user equipment (UE), a plurality of physical downlink shared channels (PDSCHs) in consecutive subframes of an unlicensed band; receiving hybrid automatic repeat request (HARQ) responses to the plurality of PDSCHs from the UE; and when a size of a first subframe belonging to the consecutive subframes is 1 millisecond, changing a size of a contention window (CW) based only on a first HARQ response among the HARQ responses, and when the size of the first subframe is less than 1 millisecond, changing the size of the CW based on the first HARQ response and a second HARQ response among the HARQ responses, wherein the first HARQ response is a HARQ response to a first PDSCH which has been transmitted in the first subframe, and the second HARQ response is a HARQ response to a second PDSCH which has been transmitted in a second subframe belonging to the consecutive subframes.