mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a secondary battery structure having a windable flexible polymer matrix solid electrolyte, comprising the steps of: (a) sputtering or evaporating a positive electrode on a first side of a cloth solid electrolyte ; (b) sputtering or evaporating a negative electrode on a second side opposite to the first side of the cloth solid electrolyte ; and (c) conducting a heat treatment process to form a first carbonized layer between the positive electrode and the cloth solid electrolyte and a second carbonized layer between the negative electrode and the cloth solid electrolyte , wherein both of the first carbonized layer and the second carbonized layer are metal carbides. (a) sputtering or evaporating a positive electrode on a first side of a cloth solid electrolyte ; (b) sputtering or evaporating a negative electrode on a second side opposite to the first side of the cloth solid electrolyte ; and (c) conducting a heat treatment process to form a first carbonized layer between the positive electrode and the cloth solid electrolyte and a second carbonized layer between the negative electrode and the cloth solid electrolyte , wherein both of the first carbonized layer and the second carbonized layer are metal carbides.
A glass pharmaceutical package having a glass composition comprising: from greater than or equal to 68.00 mol% to less than or equal to 81.00 mol% SiO 2 ; from greater than or equal to 4.00 mol% to less than or equal to 11.00 mol% Al 2 O 3 ; from greater than or equal to 0.10 mol% to less than or equal to 16.00 mol% Li 2 O; from greater than or equal to 0.10 mol% to less than or equal to 12.00 mol% Na 2 O; from greater than or equal to 0.00 mol% to less than or equal to 5.00 mol% K 2 O; from greater than or equal to 0.10 mol% to less than or equal to 8.00 mol% MgO; from greater than or equal to 0.10 mol% to less than or equal to 5.00 mol% CaO; from greater than or equal to 0.00 mol% to less than or equal to 0.20 mol% fining agent; wherein the glass pharmaceutical package is delamination resistant, the glass pharmaceutical package has class 1 or class 2 chemical durability in acid, base, and water, the amount of Li 2 O relative to the total alkali metal content is from greater than or equal to 60% to less than or equal to 70%, the amount of sodium to the total alkali metal content is from greater than or equal to 12% to less than or equal to 22%, and the amount of potassium relative to the total alkali metal content is from greater than or equal to 12% to less than or equal to 22%. from greater than or equal to 68.00 mol% to less than or equal to 81.00 mol% SiO 2 ; from greater than or equal to 4.00 mol% to less than or equal to 11.00 mol% Al 2 O 3 ; from greater than or equal to 0.10 mol% to less than or equal to 16.00 mol% Li 2 O; from greater than or equal to 0.10 mol% to less than or equal to 12.00 mol% Na 2 O; from greater than or equal to 0.00 mol% to less than or equal to 5.00 mol% K 2 O; from greater than or equal to 0.10 mol% to less than or equal to 8.00 mol% MgO; from greater than or equal to 0.10 mol% to less than or equal to 5.00 mol% CaO; from greater than or equal to 0.00 mol% to less than or equal to 0.20 mol% fining agent; wherein the glass pharmaceutical package is delamination resistant, the glass pharmaceutical package has class 1 or class 2 chemical durability in acid, base, and water,
A method of forming a structure, said method comprising: providing a substrate, said substrate optionally including one or more intermediate layers thereon; forming an assist layer on said substrate, or on said one or more intermediate layers, if present, said assist layer being formed from a composition comprising a polymeric metal alkoxide comprising recurring units having the following formula: where each R is individually selected from the group consisting of hydrogen and alkyl groups, and M is a metal selected from the group consisting of Al, Mg, Na, Zn, Co, Cu, Ga, Ge, Hf, Ti, Zr, Se, Ni, V, Ar, Sc, and Si, and being a cured film comprising at least 0.01% by weight metal, based upon the total weight of the cured film taken as 100% by weight; forming a photoresist layer on said assist layer; subjecting at least a portion of said photoresist layer to EUV radiation, wherein said subjecting said photoresist layer to EUV radiation is carried out with a dose of from 5 mJ/cm 2 to 100 mJ/cm 2 ; and forming a pattern in said photoresist layer after said subjecting of said photoresist layer to EUV radiation. providing a substrate, said substrate optionally including one or more intermediate layers thereon; forming an assist layer on said substrate, or on said one or more intermediate layers, if present, said assist layer being formed from a composition comprising a polymeric metal alkoxide comprising recurring units having the following formula: where each R is individually selected from the group consisting of hydrogen and alkyl groups, and M is a metal selected from the group consisting of Al, Mg, Na, Zn, Co, Cu, Ga, Ge, Hf, Ti, Zr, Se, Ni, V, Ar, Sc, and Si, and being a cured film comprising at least 0.01% by weight metal, based upon the total weight of the cured film taken as 100% by weight; forming a photoresist layer on said assist layer; subjecting at least a portion of said photoresist layer to EUV radiation, wherein said subjecting said photoresist layer to EUV radiation is carried out with a dose of from 5 mJ/cm 2 to 100 mJ/cm 2 ; and forming a pattern in said photoresist layer after said subjecting of said photoresist layer to EUV radiation.
A lateral buffer system for a rail vehicle comprising two subassemblies consisting of a vehicle body and a running gear , the buffer system comprising first and second stop devices, one of the first and second stop devices comprising lateral stop means for attachment to the running gear and the other one of the first and second stop devices comprising lateral counter-stop means for attachment to the vehicle body so as to limit the relative movement between the vehicle body and the running gear in a transverse direction of the rail vehicle, wherein the first lateral stop device comprises a fixed support , a movable carrier provided with a pair of opposite contact faces and movable relative to the fixed support in two opposite directions parallel to a reference axis of the fixed support , and a set of one or more elastomeric bodies for resiliently connecting the movable carrier to the fixed support for allowing limited movement of the movable carrier relative to the fixed support parallel to reference axis on either side of a reference position of the movable carrier relative to the fixed support , and the second lateral stop device comprises corresponding contact faces each facing one of the contact faces of the first lateral stop device at a distance thereof, characterised in that the fixed support is formed as a tubular housing through which the movable carrier extends, and the pair of opposite contact faces of the movable carrier protrude from the ends of the tubular housing.
A liquid ejection head comprising: a plurality of ejection members , each having an ejection port for ejecting liquid and a liquid chamber for supplying liquid to the ejection port; a base substrate carrying, on a surface thereof, the plurality of ejection members; and a common flow channel formed in the base substrate and running along said surface, for supplying liquid to the plurality of liquid chambers; further comprising: a plurality of branch ports each directly connecting, in a direction perpendicular to said surface of the base substrate, the common flow channel and a respective liquid chamber so as to allow the common flow channel to communicate with the liquid chamber, wherein, as viewed in the direction perpendicular to said surface of the base substrate, each of the branch ports has a tapered profile at an upstream side with respect to a flow direction of liquid flowing through the common flow channel, said tapered profile being provided by a notch portion . a plurality of ejection members , each having an ejection port for ejecting liquid and a liquid chamber for supplying liquid to the ejection port; a base substrate carrying, on a surface thereof, the plurality of ejection members; and a common flow channel formed in the base substrate and running along said surface, for supplying liquid to the plurality of liquid chambers; further comprising: a plurality of branch ports each directly connecting, in a direction perpendicular to said surface of the base substrate, the common flow channel and a respective liquid chamber so as to allow the common flow channel to communicate with the liquid chamber, wherein, as viewed in the direction perpendicular to said surface of the base substrate, each of the branch ports has a tapered profile at an upstream side with respect to a flow direction of liquid flowing through the common flow channel, said tapered profile being provided by a notch portion . a plurality of branch ports each directly connecting, in a direction perpendicular to said surface of the base substrate, the common flow channel and a respective liquid chamber so as to allow the common flow channel to communicate with the liquid chamber, wherein, as viewed in the direction perpendicular to said surface of the base substrate, each of the branch ports has a tapered profile at an upstream side with respect to a flow direction of liquid flowing through the common flow channel, said tapered profile being provided by a notch portion .
A method for circadian lighting in a home automation system, comprising: receiving, in a user interface of an electronic device (160-170), user selections of color temperature and intensity for a structure having a plurality of rooms that define a circadian lighting curve; receiving, in the user interface, a user selection of a room of the plurality of rooms in which to activate circadian lighting; determining a current color temperature and intensity of lighting in an outdoor environment; calculating, by an algorithm executing on the electronic device or another electronic device, an optimal color temperature and dimming value by combining a color temperature and intensity from the circadian lighting curve and the current color temperature and intensity of lighting in the outdoor environment, the combining to decrease color temperature and/or intensity from the circadian lighting curve or increase the color temperature and/or intensity from the circadian lighting curve to mimic the current color temperature and intensity in the outdoor environment; and converting the optimal color temperature and dimming value into individual sets of lighting commands that control individual lighting devices of the room, wherein the lighting devices of the room include lighting devices with different capabilities, including one or more lighting devices that have controllable color temperature and intensity and one or more lighting devices that have only controllable intensity. receiving, in a user interface of an electronic device (160-170), user selections of color temperature and intensity for a structure having a plurality of rooms that define a circadian lighting curve; receiving, in the user interface, a user selection of a room of the plurality of rooms in which to activate circadian lighting; determining a current color temperature and intensity of lighting in an outdoor environment; calculating, by an algorithm executing on the electronic device or another electronic device, an optimal color temperature and dimming value by combining a color temperature and intensity from the circadian lighting curve and the current color temperature and intensity of lighting in the outdoor environment, the combining to decrease color temperature and/or intensity from the circadian lighting curve or increase the color temperature and/or intensity from the circadian lighting curve to mimic the current color temperature and intensity in the outdoor environment; and converting the optimal color temperature and dimming value into individual sets of lighting commands that control individual lighting devices of the room, wherein the lighting devices of the room include lighting devices with different capabilities, including one or more lighting devices that have controllable color temperature and intensity and one or more lighting devices that have only controllable intensity.
A system comprising: an exhaust section configured to receive an exhaust flow of a gas turbine , wherein the exhaust section comprises a catalyst assembly ; an exhaust flow duct coupled to a diffuser section upstream of the catalyst assembly , wherein the exhaust flow duct is configured to extract a return portion of the exhaust flow ; a filter house coupled to the exhaust flow duct, wherein the filter house is configured to receive a combined flow of an ambient air flow and the return portion ; and a return conduit coupled to the filter house and the exhaust section , wherein the return conduit is coupled to the exhaust section upstream of the exhaust flow duct, the return conduit is configured to direct the combined flow to the exhaust section , and the catalyst assembly is configured to receive a mixed flow comprising the exhaust flow and the combined flow . an exhaust section configured to receive an exhaust flow of a gas turbine , wherein the exhaust section comprises a catalyst assembly ; an exhaust flow duct coupled to a diffuser section upstream of the catalyst assembly , wherein the exhaust flow duct is configured to extract a return portion of the exhaust flow ; a filter house coupled to the exhaust flow duct, wherein the filter house is configured to receive a combined flow of an ambient air flow and the return portion ; and a return conduit coupled to the filter house and the exhaust section , wherein the return conduit is coupled to the exhaust section upstream of the exhaust flow duct, the return conduit is configured to direct the combined flow to the exhaust section , and the catalyst assembly is configured to receive a mixed flow comprising the exhaust flow and the combined flow .
A device for mixing cement slurry, comprising: a containment structure which forms a mixing chamber inside it; a driving shaft mounted through the containment structure , and which has a first end positioned in the mixing chamber , and a second end outside the containment structure and in use connectable to a driving motor, the driving shaft having an axis of rotation ; a pierced wall mounted in the mixing chamber , the pierced wall being centred on the axis of rotation and dividing the mixing chamber into an inner part and an annular outer part which are coaxial; and a centrifugal impeller , fixed to the first end of the driving shaft and positioned in the inner part of the mixing chamber , in use the centrifugal impeller forcing a water-based mixture to pass through the pierced wall ; wherein moreover: the containment structure comprises an inlet , centred relative to the axis of rotation and facing the inner part of the mixing chamber , and an outlet facing the outer part of the mixing chamber , the pierced wall intercepting a fluid path which extends from the inlet to the outlet ; a feed duct is joined to the inlet ; and characterized in that the feed duct and/or the inlet are shaped in such a way as to form at least one introducing duct with cross-section increasing towards the centrifugal impeller , directly facing the inner part of the mixing chamber . a containment structure which forms a mixing chamber inside it; a driving shaft mounted through the containment structure , and which has a first end positioned in the mixing chamber , and a second end outside the containment structure and in use connectable to a driving motor, the driving shaft having an axis of rotation ; a pierced wall mounted in the mixing chamber , the pierced wall being centred on the axis of rotation and dividing the mixing chamber into an inner part and an annular outer part which are coaxial; and a centrifugal impeller , fixed to the first end of the driving shaft and positioned in the inner part of the mixing chamber , in use the centrifugal impeller forcing a water-based mixture to pass through the pierced wall ; the containment structure comprises an inlet , centred relative to the axis of rotation and facing the inner part of the mixing chamber , and an outlet facing the outer part of the mixing chamber , the pierced wall intercepting a fluid path which extends from the inlet to the outlet ; a feed duct is joined to the inlet ; and characterized in that the feed duct and/or the inlet are shaped in such a way as to form at least one introducing duct with cross-section increasing towards the centrifugal impeller , directly facing the inner part of the mixing chamber .
An exercise rope , comprising: a weighted core ; a first braided layer surrounding the weighted core , the first braided layer having yarns of a first ply; characterized by a second braided layer surrounding the first braided layer , the second braided layer having yarns of a second ply, the second ply being higher than the first ply; an adhesive coating the second braided layer ; and a third braided layer surrounding the second braided layer , the third braided layer having yarns of a third ply, the third ply being higher than the second ply. a weighted core ; a first braided layer surrounding the weighted core , the first braided layer having yarns of a first ply; characterized by a second braided layer surrounding the first braided layer , the second braided layer having yarns of a second ply, the second ply being higher than the first ply; an adhesive coating the second braided layer ; and a third braided layer surrounding the second braided layer , the third braided layer having yarns of a third ply, the third ply being higher than the second ply.
An assembly intended to form an electrical path, said assembly comprising: - a harness which comprises several electrical cables parallel to each other, and - a spool which has a body which said cables are held to, with the body extending parallel to a common direction (d) of extension of the electrical cables , and arms , characterized in that each arm comprises a first end and a second end , with the second end of each arm being movable with respect to the body , the arms being mounted on said body at the first end , one of said cables being fixed to the second end of each of said arms, the second end of each arm being movable independently of the other arms, between a position for a maximum absorption of overlength of cable , in which the second end is radially remote from the body , and a position for a maximum creation of overlength of cable , in which the second end is closer to the body , so that, by adjusting the positions of the second ends of the arms with respect to the body in said position for maximum absorption or in said position for maximum creation of overlength, or in intermediate positions between said positions for maximum absorption and for maximum creation of overlength, the cables all extend in a same plane (P) at least at one end of the harness . - a harness which comprises several electrical cables parallel to each other, and - a spool which has a body which said cables are held to, with the body extending parallel to a common direction (d) of extension of the electrical cables , and arms , characterized in that each arm comprises a first end and a second end , with the second end of each arm being movable with respect to the body , the arms being mounted on said body at the first end , one of said cables being fixed to the second end of each of said arms, the second end of each arm being movable independently of the other arms, between a position for a maximum absorption of overlength of cable , in which the second end is radially remote from the body , and a position for a maximum creation of overlength of cable , in which the second end is closer to the body , so that, by adjusting the positions of the second ends of the arms with respect to the body in said position for maximum absorption or in said position for maximum creation of overlength, or in intermediate positions between said positions for maximum absorption and for maximum creation of overlength, the cables all extend in a same plane (P) at least at one end of the harness .
A cement quick hardening material which comprises a calcium aluminate clinker ground product obtained by grinding 100 parts by mass of a calcium aluminate clinker in the presence of from 0.2 to 3.0 parts by mass of a fatty acid represented by the formula (RCOO) n X (wherein R is a saturated or unsaturated hydrocarbon, n is 1 or 2, and X is hydrogen, an alkali metal or an alkaline earth metal), gypsum, a retarder and an alkali metal carbonate.
Stress-measuring system for determining a level of stress of a user, in particular for monitoring an upcoming burnout, the system comprising: - an alarm clock for initiating an alarm at an arbitrary preset time, wherein the system comprises an interface for switching off the alarm; - a vital sign sensor for measuring a first vital sign of the user while the user operates the interface ; and - a processing unit for determining the level of stress of the user based on the sensed first vital sign; characterised by the vital sign sensor being integrated into the switch off interface of the alarm clock - an alarm clock for initiating an alarm at an arbitrary preset time, wherein the system comprises an interface for switching off the alarm; - a vital sign sensor for measuring a first vital sign of the user while the user operates the interface ; and - a processing unit for determining the level of stress of the user based on the sensed first vital sign; characterised by the vital sign sensor being integrated into the switch off interface of the alarm clock
A polymeric composition comprising a polymer derived from hyaluronic acid having crosslinked units together forming at least one of the following groups of formula (I), II) or (III): each group being in neutral or salt form, and wherein L is a hydrocarbon chain having 2 to 10 carbon atoms and optionally interrupted by one or more groups -O- or - NH-.
Method for controlling a missile in which an object is identified in a search image , wherein a) the object and surroundings around the object are recorded by an optics unit , swivellable by way of a drive , of a camera that is a constituent part of a seeker head of the missile or of a start-up device of the missile , b) a search space is completely covered by a sequence of recorded images recorded immediately in succession, which are recorded during continuous swivelling of the optics unit in such a way that the optics unit is swivelled in the surroundings during the integration of each recorded image , c) search images are back calculated from the recorded images using the point spread function and using the swivelling movement of the optics unit captured by a swivel capture unit and the search images are searched for the object and, should the object be identified, the latter is marked as target of the missile in the corresponding search image , respectively by an image processing unit . a) the object and surroundings around the object are recorded by an optics unit , swivellable by way of a drive , of a camera that is a constituent part of a seeker head of the missile or of a start-up device of the missile , b) a search space is completely covered by a sequence of recorded images recorded immediately in succession, which are recorded during continuous swivelling of the optics unit in such a way that the optics unit is swivelled in the surroundings during the integration of each recorded image , c) search images are back calculated from the recorded images using the point spread function and using the swivelling movement of the optics unit captured by a swivel capture unit and the search images are searched for the object and, should the object be identified, the latter is marked as target of the missile in the corresponding search image , respectively by an image processing unit .