mhurhangee/patent-ind-claim-en huggingface dataset:
A working machine comprising: a machine body ; a support bracket protruding forward from the machine body ; a swing bracket pivotally supported by the support bracket to be capable of horizontally pivoting; a boom pivotally supported by the swing bracket to be capable of pivoting up and down; a swing sensor configured to detect a position of the swing bracket ; and a controller (U1) configured to acquire a detection signal from the swing sensor and to control a swinging movement defined as pivotal movement of the swing bracket , wherein the controller (U1) includes a swinging stopper unit configured to stop the swinging movement, characterized in that the swinging stopper unit is configured to stop the swinging movement when the swing bracket in the pivotal movement reaches a center position at which the boom is orientated in a forward direction of the machine body ; and to release the stop of the swinging movement after passage of a predetermined time from the stop of the swinging movement. a machine body ; a support bracket protruding forward from the machine body ; a swing bracket pivotally supported by the support bracket to be capable of horizontally pivoting; a boom pivotally supported by the swing bracket to be capable of pivoting up and down; a swing sensor configured to detect a position of the swing bracket ; and a controller (U1) configured to acquire a detection signal from the swing sensor and to control a swinging movement defined as pivotal movement of the swing bracket , wherein the controller (U1) includes a swinging stopper unit configured to stop the swinging movement, characterized in that the swinging stopper unit is configured to stop the swinging movement when the swing bracket in the pivotal movement reaches a center position at which the boom is orientated in a forward direction of the machine body ; and to release the stop of the swinging movement after passage of a predetermined time from the stop of the swinging movement. a swinging stopper unit configured to stop the swinging movement, characterized in that the swinging stopper unit is configured to stop the swinging movement when the swing bracket in the pivotal movement reaches a center position at which the boom is orientated in a forward direction of the machine body ; and to release the stop of the swinging movement after passage of a predetermined time from the stop of the swinging movement.
A chemically-sensitive field effect transistor comprising: a substrate layer having an extended body; a first insulating layer positioned above the extended body of the substrate layer; a second insulating layer positioned above the first insulating layer, the second insulating layer forming a well-structure having a chamber for receiving a solution containing one or more reactants; a source electrode and a drain electrode each having a top surface and a bottom surface, the top surface separated from the bottom surface by opposing outer and inner side portions, each of the opposed side portions and each of the bottom surfaces of the source and drain electrodes being disposed within the first insulating layer, the source electrode being separated from the drain electrode by a distance; a graphene layer positioned between the first and second insulating layers and extending between the outer side portion of the source electrode and the outer side portion of the drain electrode thereby forming a channel in the distance between the source and drain electrodes, the graphene layer contacting the top surface of the source and drain electrodes; and an ion getter material configured to trap ions that are unwanted in the chemical reaction to be sensed or determined, wherein the ion getter material is positioned within the chamber or over the well-structure, wherein the ion getter material is made of a metal or a glass. a substrate layer having an extended body; a first insulating layer positioned above the extended body of the substrate layer; a second insulating layer positioned above the first insulating layer, the second insulating layer forming a well-structure having a chamber for receiving a solution containing one or more reactants; a source electrode and a drain electrode each having a top surface and a bottom surface, the top surface separated from the bottom surface by opposing outer and inner side portions, each of the opposed side portions and each of the bottom surfaces of the source and drain electrodes being disposed within the first insulating layer, the source electrode being separated from the drain electrode by a distance; a graphene layer positioned between the first and second insulating layers and extending between the outer side portion of the source electrode and the outer side portion of the drain electrode thereby forming a channel in the distance between the source and drain electrodes, the graphene layer contacting the top surface of the source and drain electrodes; and an ion getter material configured to trap ions that are unwanted in the chemical reaction to be sensed or determined, wherein the ion getter material is positioned within the chamber or over the well-structure, wherein the ion getter material is made of a metal or a glass.
A polypeptide comprising the amino acid sequence: X 1 X 2 X 3 X 4 X 5 X 6 X 7 X 8 X 9 X 10 G X 11 X 12 X 13 X 14 (SEQ ID NO: 717), wherein: X 1 is R, E, [hArg], or absent; X 2 is [r], R, E, [hArg], or absent; X 3 is Q, [q], or [BLeu]; X 4 is [hArg], [NMeArg], R, E, or [r]; X 5 is P or [aMePro]; X 6 is R, E, [r], [hArg] or [NMeArg]; X 7 is L, [aMeLeu], [BLeu], [NMeLeu] or [Cha]; X 8 is S, [BhSer], or [NhSerG]; X 9 is H or Y; X 10 is K or [NLysG]; X 11 is P, [Oic], [aMePro], or [Pip]; X 12 is [Nle], [rNle], or [pl-Phe]; X 13 is P, [BhPro], [aMePro], or [Aib]; and X 14 is F, [D-BhPhe], [4-CI-F], [D-4CIF], or [D-Bip] for use in therapy. X 1 is R, E, [hArg], or absent; X 2 is [r], R, E, [hArg], or absent; X 3 is Q, [q], or [BLeu]; X 4 is [hArg], [NMeArg], R, E, or [r]; X 5 is P or [aMePro]; X 6 is R, E, [r], [hArg] or [NMeArg]; X 7 is L, [aMeLeu], [BLeu], [NMeLeu] or [Cha]; X 8 is S, [BhSer], or [NhSerG]; X 9 is H or Y; X 10 is K or [NLysG]; X 11 is P, [Oic], [aMePro], or [Pip]; X 12 is [Nle], [rNle], or [pl-Phe]; X 13 is P, [BhPro], [aMePro], or [Aib]; and X 14 is F, [D-BhPhe], [4-CI-F], [D-4CIF], or [D-Bip]
A system for controlling the sizing of a rising foam emulsion web travelling on a conveyor , the system comprising: - a plate arrangement , comprising at least a first plate and a second plate , each plate having a web-facing lower side and an opposite upper side , wherein the second plate is configured to be located downstream of the first plate with respect to the direction of travel of the foam emulsion web; and - an actuating arrangement comprising a base portion and a top portion , the top portion being movable relative to the base portion and being operatively connected to the plate arrangement, the actuating arrangement being configured to individually adjust for each plate of the plate arrangement a separating distance relative to the base portion, for controlling the rising of the foam emulsion web along at least a part of its travel, characterized in that the width of each plate increases from an upstream end of the plate to a downstream end of the plate, upstream and downstream being defined with respect to the direction of travel, wherein the width of the upstream end of the second plate corresponds to the width of the downstream end of the first plate . - a plate arrangement , comprising at least a first plate and a second plate , each plate having a web-facing lower side and an opposite upper side , wherein the second plate is configured to be located downstream of the first plate with respect to the direction of travel of the foam emulsion web; and - an actuating arrangement comprising a base portion and a top portion , the top portion being movable relative to the base portion and being operatively connected to the plate arrangement, the actuating arrangement being configured to individually adjust for each plate of the plate arrangement a separating distance relative to the base portion, for controlling the rising of the foam emulsion web along at least a part of its travel, characterized in that the width of each plate increases from an upstream end of the plate to a downstream end of the plate, upstream and downstream being defined with respect to the direction of travel, wherein the width of the upstream end of the second plate corresponds to the width of the downstream end of the first plate .
A mask template for protecting a predetermined region of a surface of a sheet metal blank from receiving a coating of a lubricant material , the mask template comprising: a mask element dimensioned larger than the predetermined region and having a first surface on a first side thereof, a second surface on a second side thereof that is opposite the first side, and an edge joining the first surface and the second surface and defining a perimeter around the mask element; an overspray fence extending to a first distance away from the first surface of the mask element, the overspray fence enclosing an area that is the same shape and size as the predetermined region, wherein a portion of the mask element overhangs the overspray fence ; and at least one contact element extending to a second distance that is greater than the first distance away from the first surface of the mask element, the at least one contact element for engaging the surface of the sheet metal blank and for releasably securing the mask template to the surface of the sheet metal blank , wherein the overspray fence is spaced-away from the surface of the sheet metal blank when the at least one contact element releasably secures the mask template to the surface of the sheet metal blank . a mask element dimensioned larger than the predetermined region and having a first surface on a first side thereof, a second surface on a second side thereof that is opposite the first side, and an edge joining the first surface and the second surface and defining a perimeter around the mask element; an overspray fence extending to a first distance away from the first surface of the mask element, the overspray fence enclosing an area that is the same shape and size as the predetermined region, wherein a portion of the mask element overhangs the overspray fence ; and at least one contact element extending to a second distance that is greater than the first distance away from the first surface of the mask element, the at least one contact element for engaging the surface of the sheet metal blank and for releasably securing the mask template to the surface of the sheet metal blank , wherein the overspray fence is spaced-away from the surface of the sheet metal blank when the at least one contact element releasably secures the mask template to the surface of the sheet metal blank .
A cryogenic radio-frequency resonator system comprising: an inductive device disposed at least partially within a thermally conductive substrate ; a cryogenic capacitive device coupled to the inductive device to form a cryogenic resonant circuit with an associated circuit impedance value; a radio-frequency, RF, input port configured to route an input RF signal to the cryogenic resonant circuit, the cryogenic resonant circuit being configured to provide impedance matching between an external RF source generating the input RF signal and an external cryogenic device and to generate an impedance-matched RF signal; and an RF output port configured to provide the impedance-matched RF signal to the external cryogenic device, characterized in that the cryogenic radio-frequency resonator system further comprises a thermally conductive enclosure including a cavity filled with the thermally conductive substrate , the inductive device being disposed in the cavity. an inductive device disposed at least partially within a thermally conductive substrate ; a cryogenic capacitive device coupled to the inductive device to form a cryogenic resonant circuit with an associated circuit impedance value; a radio-frequency, RF, input port configured to route an input RF signal to the cryogenic resonant circuit, the cryogenic resonant circuit being configured to provide impedance matching between an external RF source generating the input RF signal and an external cryogenic device and to generate an impedance-matched RF signal; and an RF output port configured to provide the impedance-matched RF signal to the external cryogenic device, characterized in that the cryogenic radio-frequency resonator system further comprises a thermally conductive enclosure including a cavity filled with the thermally conductive substrate , the inductive device being disposed in the cavity.
A knitting machine, comprising a needle holder which supports a plurality of side-by-side needles and is provided with means for guiding said needles , said guiding means comprising knitting forming channels , which are defined proximate to an end of the needle holder and are mutually laterally adjacent, and sliding channels , which are defined on said needle holder in a region that is spaced from said end of the needle holder and are mutually laterally adjacent; each one of said needles being accommodated, so that it can slide longitudinally, in a corresponding knitting forming channel and being provided, at one of its ends, with a hook-shaped head which can engage at least one thread supplied to the needles at a feed or drop of the machine to form knitting; each one of said needles being provided, in a region that is spaced from said head and is arranged in one of said sliding channels , with at least one heel that protrudes from one face of said needle holder and can engage at least one path defined by cams that face said face of the needle holder ; said needle holder being actuatable with respect to said cams along an actuation trajectory that is substantially perpendicular to the longitudinal extension of said knitting forming channels and said paths being shaped so as to cause, following the actuation of the needle holder along said actuation trajectory with respect to said cams , the alternating sliding of the needles along the corresponding knitting forming channel with respect to said needle holder with an extraction motion, by means of which the needle is extracted with its head and with a portion of its stem from said end of the needle holder to release, onto its stem , the loop of knitting formed previously and/or to engage the thread or threads delivered at a feed or drop of the machine, and with a retracting motion, by means of which the needle is made to retract with its head in said end of the needle holder to form a new loop of knitting, producing the knockover of the loop of knitting formed previously to produce knitting, each one of said needles has at least one elastic flexing along its extension which determines an offset of said at least one heel with respect to the head of said needle along a direction that is substantially parallel to said actuation trajectory of the needle holder , characterized in that said direction that is substantially parallel to said actuation trajectory of the needle holder being with respect to said cams in the same direction as, or in the opposite direction to, the direction of actuation of the needle holder with respect to said cams , and in that said at least one path is offset, in a manner that corresponds substantially to said offset, with respect to a theoretical path of actuation of an ideal rectilinear needle with its head in alignment with its at least one heel.
A biocompatible recording system for acquiring electronic information from the neural system of a living being, comprising: - a preamplifier, - a second amplifier stage, wherein an input of the amplifier of the second stage is coupled to an output of the preamplifier, - a low-pass filter having a capacitance multiplier connected to the amplifier of the second stage. - a preamplifier, - a second amplifier stage, wherein an input of the amplifier of the second stage is coupled to an output of the preamplifier, - a low-pass filter having a capacitance multiplier connected to the amplifier of the second stage.
Hydrotreating catalyst comprising at least one group VIB metal, at least one group VIII metal and an alumina support containing gamma alumina and an alumina chosen from delta, theta and/or alpha alumina, said alumina support having a gamma alumina content of between 60% and 95% by weight relative to the weight of the support, said support having a specific surface area of between 60 and 100 m 2 /g, the group VIB metal content is between 3% and 35% by weight of oxide of said group VIB metal relative to the total weight of the catalyst, and the group VIII metal content is between 0.1% and 10% by weight of oxide of said group VIII metal relative to the total weight of the catalyst, said catalyst having a specific surface area of between 50 and 90 m 2 /g.
A compound of the formula AC007-H1, AC009-H1 or AC012-H1:
A stable liquid pharmaceutical composition comprising: a) at least one omega-3 fatty acid ethyl ester in a total amount of up to 5 wt% based on the total weight of the composition; b) a liquid paraffin in a total amount of up to 1 wt% based on the total weight of the composition; wherein the at least one omega-3 fatty acid ethyl ester and the liquid paraffin are dissolved in a liquid vehicle comprising a semifluorinated alkane selected from 1-perfluorohexyl-octane (F6H8) or 1-perfluorobutyl-pentane (F4H5); wherein the liquid paraffin is light liquid paraffin. a) at least one omega-3 fatty acid ethyl ester in a total amount of up to 5 wt% based on the total weight of the composition; b) a liquid paraffin in a total amount of up to 1 wt% based on the total weight of the composition; wherein the at least one omega-3 fatty acid ethyl ester and the liquid paraffin are dissolved in a liquid vehicle comprising a semifluorinated alkane selected from 1-perfluorohexyl-octane (F6H8) or 1-perfluorobutyl-pentane (F4H5); wherein the liquid paraffin is light liquid paraffin.
A method for performing, by a user equipment, UE, time or frequency tracking in a multi-cellular wireless communication system, the method comprising: receiving a configuration of a frequency for a time or frequency tracking reference carrier, wherein the time or frequency tracking reference carrier is a licensed carrier of 3rd generation partnership project, 3GPP, long-term evolution, LTE; searching for a best cell in the frequency; determining the time or frequency tracking reference carrier which corresponds to the best cell; receiving a signal from the determined time or frequency tracking reference carrier used for the time or frequency tracking in an unlicensed carrier which is collocated with said licensed carrier; and performing the time or frequency tracking in the unlicensed carrier based on the signal. receiving a configuration of a frequency for a time or frequency tracking reference carrier, wherein the time or frequency tracking reference carrier is a licensed carrier of 3rd generation partnership project, 3GPP, long-term evolution, LTE; searching for a best cell in the frequency; determining the time or frequency tracking reference carrier which corresponds to the best cell; receiving a signal from the determined time or frequency tracking reference carrier used for the time or frequency tracking in an unlicensed carrier which is collocated with said licensed carrier; and performing the time or frequency tracking in the unlicensed carrier based on the signal.
Use of nitrogen-containing-gas removing means to avoid failure of a mass flow controlled electrochemical oxygen sensor in a flue gas analyser when measuring the concentration of oxygen in a flue gas having a relative humidity of at least 80% and a nitrogen dioxide concentration of at least 5ppm, the flue gas analyser comprising an inlet for receiving gas for analysis from a flue, the mass flow controlled electrochemical oxygen sensor comprising a cathode which is operable to reduce oxygen and a mass flow control member which is a narrow tube and which restricts the diffusion of flue gas to the cathode such that the reduction of oxygen at the cathode is mass flow limited, the nitrogen-containing-gas removing means removing from the received flue gas one or more gaseous species comprising nitrogen and oxygen which are either nitrogen dioxide, or formed from nitrogen dioxide in the presence of sufficient water vapour.
A knife assembly (P2, P3) comprising, a knife blade having a thickness, first and second blade surfaces across the thickness, a bevel surface formed on the first blade surface side of the knife blade , a cutting edge formed by the second blade surface and the bevel surface , a base end surface located opposite from and extending parallel to the cutting edge , characterized by a plurality of knife blade holders including respective holder blocks each having a first support surface that is in contact with the first blade surface of the knife blade and a second support surface that is in contact with the base end surface of the knife blade , said holder block having therethrough a threaded hole formed extending in the direction perpendicular to the second support surface of the holder block , the holder block being removably fixed to the knife blade, said plurality of knife blade holders being disposed with predetermined intervals therebetween relative to and in the longitudinal direction of the cutting edge of the knife blade , said knife blade having therein at a position adjacent to the base end surface thereof a plurality of threaded holes each formed extending in the thickness direction of the knife blade and while the holder block of each knife blade holder has therethrough a hole formed coaxially with the corresponding threaded hole in the knife blade, each knife blade holder further including a fixing bolt that is inserted through the hole in the holder block and screwed in the corresponding threaded hole in the knife blade to fix each holder block of the knife blade holders to the knife blade ; each knife blade holder having a knife adjusting bolt adjustably inserted through the threaded hole in the respective knife block , and a lock nut that releasably fixes the knife adjusting bolt to the holder block .