mhurhangee/patent-ind-claim-en huggingface dataset:
A waterproof boot comprising: a waterproof upper , having a foot portion , a leg portion and an ankle region located between the foot portion and the leg portion; an expansion mechanism provided in the upper adapted to allow the internal circumference of the upper to expand in the ankle region; characterized in that the waterproof boot comprises : a pocket provided in the upper at an anterior aspect of the ankle region; a selectively removable insert adapted to snugly fit within the pocket; the expansion mechanism being spaced from the pocket. a waterproof upper , having a foot portion , a leg portion and an ankle region located between the foot portion and the leg portion; an expansion mechanism provided in the upper adapted to allow the internal circumference of the upper to expand in the ankle region; characterized in that the waterproof boot comprises : a pocket provided in the upper at an anterior aspect of the ankle region; a selectively removable insert adapted to snugly fit within the pocket; the expansion mechanism being spaced from the pocket. a pocket provided in the upper at an anterior aspect of the ankle region; a selectively removable insert adapted to snugly fit within the pocket; the expansion mechanism being spaced from the pocket.
A body monitoring system , comprising: - a capsule for measuring a body analyte, the capsule comprising a first face capable of being brought into contact with the skin of a user, and microneedles fixedly mounted on the first face , - a patch comprising a main body , the main body comprising a second face capable of being against the skin of a user, the patch comprising a first layer of adhesive covering at least partly the second face , and a peelable cover covering the layer of adhesive , characterized in that : - the peelable cover comprises at least two separate parts , the parts being adjacent to each other, - the main body and the first layer of adhesive comprise a central part in which an opening capable of receiving the capsule is formed, the opening having a maximum diameter greater than 2 mm, preferably greater than 5 mm, - the peelable cover entirely covers the opening , - the capsule is removably received in the opening , and - the peelable cover covers the microneedles . - a capsule for measuring a body analyte, the capsule comprising a first face capable of being brought into contact with the skin of a user, and microneedles fixedly mounted on the first face , - a patch comprising a main body , the main body comprising a second face capable of being against the skin of a user, the patch comprising a first layer of adhesive covering at least partly the second face , and a peelable cover covering the layer of adhesive , - the peelable cover comprises at least two separate parts , the parts being adjacent to each other, - the main body and the first layer of adhesive comprise a central part in which an opening capable of receiving the capsule is formed, the opening having a maximum diameter greater than 2 mm, preferably greater than 5 mm, - the peelable cover entirely covers the opening , - the capsule is removably received in the opening , and - the peelable cover covers the microneedles .
A curable, one-part, dual-stage thiol-ene-epoxy liquid adhesive composition comprising: an epoxy resin component comprising an epoxy resin having at least two epoxide groups per molecule; a thiol component comprising a polythiol compound having at least two thiol groups; a nitrogen-containing catalyst for the epoxy resin; a barbituric acid derivative soluble in the thiol-epoxy component of the thiol-ene-epoxy adhesive composition as assessed by the method described in the present description; a non-(meth)acrylate ethylenically unsaturated compound; and a photoinitiator; wherein the nitrogen-containing catalyst is insoluble in the ethylenically unsaturated compound and the polythiol compound separately as assessed by the method described in the present description. an epoxy resin component comprising an epoxy resin having at least two epoxide groups per molecule; a thiol component comprising a polythiol compound having at least two thiol groups; a nitrogen-containing catalyst for the epoxy resin; a barbituric acid derivative soluble in the thiol-epoxy component of the thiol-ene-epoxy adhesive composition as assessed by the method described in the present description; a non-(meth)acrylate ethylenically unsaturated compound; and a photoinitiator; wherein the nitrogen-containing catalyst is insoluble in the ethylenically unsaturated compound and the polythiol compound separately as assessed by the method described in the present description.
An assist force calculation method, calculating an assist force for an electrically assisted bicycle, the method comprising: obtaining an instant pedaling force (A[t]) inputted into a pedal of the electrically assisted bicycle from a pedaling force sensor ; obtaining a crank advance angle (ω[t]) of a crankshaft of the electrically assisted bicycle from an advance angle sensor having a resolution of less than 90°; and determining the assist force (E[t]) based on at least the instant pedaling force (A[t]) and the crank advance angle (ω[t]), wherein the method further comprises: setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force (C); defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force (C) results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force (C) and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]). obtaining an instant pedaling force (A[t]) inputted into a pedal of the electrically assisted bicycle from a pedaling force sensor ; obtaining a crank advance angle (ω[t]) of a crankshaft of the electrically assisted bicycle from an advance angle sensor having a resolution of less than 90°; and determining the assist force (E[t]) based on at least the instant pedaling force (A[t]) and the crank advance angle (ω[t]), wherein the method further comprises: setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force (C); defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force (C) results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force (C) and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]). setting a maximum point of the instant pedaling force (A[t]) as a peak pedaling force (C); defining an advance angle amount of the crankshaft from an angle at which the peak pedaling force (C) results as the crank advance angle (w[t]); obtaining a virtual pedaling force (D[t]) based on the instant pedaling force (A[t]), the peak pedaling force (C) and the crank advance angle (w[t]); and determining the assist force (E[t]) based on the virtual pedaling force (D[t]).
A method to produce a metal-organic framework, comprising: solvothermally reacting a linker with a metal salt in an amine-based solvent to produce a metal-organic framework, wherein: the linker is or (L-3), wherein: M 1 is a metal atom, X is halo or tetrahydrofuran, and R 1 is -COOH, the metal salt is M 2 Y 2 , wherein: M 2 is zinc or zirconium, and Y is nitrate, halo, or acetate, and the metal-organic framework comprises repeating cores, wherein the cores comprise the linker coordinated to a secondary building unit through O-M 2 -O bonds, and wherein the metal-organic framework comprises a plurality of pores; and soaking the metal-organic framework in a cobalt solution to incorporate a cobalt carbonyl moiety in at least a portion of the pores in the metal-organic framework, and wherein M 1 is Zn(II), Cu(II), Mn(II), Co(II), Ru(II), Fe(II), Rh(II), Ni(II), Pd(II) Mg(II), AI(III), Cr(III), Cr(IV), Ti(IV), Fe(III), Co(III), Ti(III), In(III), Ga(III), or Mn(III).. solvothermally reacting a linker with a metal salt in an amine-based solvent to produce a metal-organic framework, wherein: the linker is or (L-3), wherein: M 1 is a metal atom, X is halo or tetrahydrofuran, and R 1 is -COOH, M 1 is a metal atom, X is halo or tetrahydrofuran, and R 1 is -COOH, the metal salt is M 2 Y 2 , wherein: M 2 is zinc or zirconium, and Y is nitrate, halo, or acetate, and M 2 is zinc or zirconium, and Y is nitrate, halo, or acetate, and the metal-organic framework comprises repeating cores, wherein the cores comprise the linker coordinated to a secondary building unit through O-M 2 -O bonds, and wherein the metal-organic framework comprises a plurality of pores; and soaking the metal-organic framework in a cobalt solution to incorporate a cobalt carbonyl moiety in at least a portion of the pores in the metal-organic framework, and wherein M 1 is Zn(II), Cu(II), Mn(II), Co(II), Ru(II), Fe(II), Rh(II), Ni(II), Pd(II) Mg(II), AI(III), Cr(III), Cr(IV), Ti(IV), Fe(III), Co(III), Ti(III), In(III), Ga(III), or Mn(III)..
A method for detecting islanding conditions of a distributed grid, wherein transfer of power through a power electrical unit in the distributed grid is controlled on the basis of a control reference and the method comprises a first stage and a second stage, wherein the first stage comprises injecting a reactive component to the control reference, and, for at least one electrical quantity of the grid, determining a change in the quantity induced by the injected component, comparing the change induced by the injected component in at least one electrical quantity to a predetermined limit, counting events of the change exceeding the limit, and proceeding to the second stage, if the amount of events exceeds a limit within a set time window, and wherein the second stage comprises, for at least one electrical quantity of the grid, determining a value of the electrical quantity, forming a positive feedback term using the determined value adding the positive feedback term to the control reference, determining a change in an electrical quantity induced by the feedback term, and determining islanding condition on the basis of the change in the quantity induced by the feedback term.
A composition comprising a stable, bioavailable silicon complex formed between silicic acid having free hydroxyl groups and at least one stabilizing agent based on phenol or polyphenol, stabilizing said free hydroxyl groups of silicic acid, for use in the prevention and/or treatment of an injury, a disease, or a disorder in a connective and/or keratinous tissue in a subject in need thereof.
A dispenser for filling an intragastric balloon, comprising: a gas canister housing with a locking mechanism ; a touch screen housing ; and a tunnel housing comprising a tunnel extending longitudinally therefrom to a disconnect valve , wherein the disconnect valve is configured and arranged for connection to an inflation catheter connection assembly , wherein the tunnel has a proximal end and a distal end , the distal end defining an opening, wherein the tunnel is configured to provide a fluid path for directing an inflation fluid from an inflation fluid canister engaged in the canister housing to a lumen of an inflation catheter of the inflation catheter connection assembly . a gas canister housing with a locking mechanism ; a touch screen housing ; and a tunnel housing comprising a tunnel extending longitudinally therefrom to a disconnect valve , wherein the disconnect valve is configured and arranged for connection to an inflation catheter connection assembly , wherein the tunnel has a proximal end and a distal end , the distal end defining an opening, wherein the tunnel is configured to provide a fluid path for directing an inflation fluid from an inflation fluid canister engaged in the canister housing to a lumen of an inflation catheter of the inflation catheter connection assembly .
Mount assembly comprising a housing and a hydromount press-fitted therein, having a support spring supporting a support mount , having a fluid-filled working chamber and a compensation chamber which are separated by a partition wall and connected to one another via a damping channel , and having an outer ring to which the suspension spring is vulcanised, the outer ring having a first fastening section which is connected to the housing in a force-locking manner, characterised by an axial clearance area disposed in the axial direction (A) between the hydromount and the housing for adjusting the screw-on position of the support mount , wherein the outer ring has a second fastening section connected to the housing in a force-locking manner and a waist section disposed between the first fastening section and the second fastening section .
A plug-in connector for connecting at least one conductor , comprising: a. a base body having a through-going opening and a limit stop , b. at least one tubular conductor holder which is arranged at least partially inside the base body and which is movably arranged therein, wherein in a feed position of the conductor holder a feed stop of the conductor holder acts on the limit stop , c. an anti-kink element which is arranged around a conductor and which protrudes at least partially axially over the base body , d. at least one spring element for positioning the conductor relative to the base body , e. wherein the at least one spring element is clamped between the conductor holder and the anti-kink element , wherein the anti-kink element and the base body are operatively connected together in a mechanical manner and serve for transmitting the force of the spring element , f. wherein the anti-kink element is configured in a sleeve-shaped manner with a through-channel and receives the conductor holder at least partially therein, wherein the through-channel is formed by a channel tube which is shaped into the interior of the anti-kink element , g. wherein the anti-kink element comprises a wall surrounding the channel tube and an end of the base body is received in the anti-kink element between the wall and the channel tube , h. and wherein the anti-kink element comprises a spring stop which is formed by a front surface of the channel tube , a first end of the spring element bearing against said spring stop. a. a base body having a through-going opening and a limit stop , b. at least one tubular conductor holder which is arranged at least partially inside the base body and which is movably arranged therein, wherein in a feed position of the conductor holder a feed stop of the conductor holder acts on the limit stop , c. an anti-kink element which is arranged around a conductor and which protrudes at least partially axially over the base body , d. at least one spring element for positioning the conductor relative to the base body , e. wherein the at least one spring element is clamped between the conductor holder and the anti-kink element , wherein the anti-kink element and the base body are operatively connected together in a mechanical manner and serve for transmitting the force of the spring element , f. wherein the anti-kink element is configured in a sleeve-shaped manner with a through-channel and receives the conductor holder at least partially therein, wherein the through-channel is formed by a channel tube which is shaped into the interior of the anti-kink element , g. wherein the anti-kink element comprises a wall surrounding the channel tube and an end of the base body is received in the anti-kink element between the wall and the channel tube , h. and wherein the anti-kink element comprises a spring stop which is formed by a front surface of the channel tube , a first end of the spring element bearing against said spring stop.
An engine system for a vehicle , comprising, an internal combustion engine , a lubrication system arranged to lubricate at least one sliding bearing of said internal combustion engine , a first lubrication pump arranged to supply lubricant to said lubrication system , wherein said first lubrication pump is configured to be powered by an auxiliary power source , wherein said lubrication system is further arranged to supply lubricant to at least one auxiliary component of said engine system which requires to be lubricated when in use, characterized in that, said lubrication system comprises at least one valve for selectively shutting off lubricant supply to said at least one auxiliary component in order to not lubricate and/or cool said at least one auxiliary component when the internal combustion engine is turned off, wherein said at least one auxiliary component is at least one of the following: a turbocharger connected to said internal combustion engine , a turbo compound connected to said internal combustion engine , and wherein said lubrication system is configured to maintain a certain level of pressure in the lubrication system by use of the first lubrication pump in order to lubricate the at least one sliding bearing when the internal combustion engine is turned off. an internal combustion engine , a lubrication system arranged to lubricate at least one sliding bearing of said internal combustion engine , a first lubrication pump arranged to supply lubricant to said lubrication system , wherein said first lubrication pump is configured to be powered by an auxiliary power source , wherein said lubrication system is further arranged to supply lubricant to at least one auxiliary component of said engine system which requires to be lubricated when in use, characterized in that, said lubrication system comprises at least one valve for selectively shutting off lubricant supply to said at least one auxiliary component in order to not lubricate and/or cool said at least one auxiliary component when the internal combustion engine is turned off, wherein said at least one auxiliary component is at least one of the following: a turbocharger connected to said internal combustion engine , a turbo compound connected to said internal combustion engine , and wherein said lubrication system is configured to maintain a certain level of pressure in the lubrication system by use of the first lubrication pump in order to lubricate the at least one sliding bearing when the internal combustion engine is turned off.
A computer-implemented method for dynamic Domain-based Message Authentication, Reporting, and Conformance, DMARC, enforcement, comprising: receiving , by a mail transfer agent, MTA , an electronic mail, email, message , the MTA having a processor and a non-transitory computer-readable medium ; obtaining , by the MTA , an originating email domain from the email message ; in response to the email message failing authentication , preparing and sending , by the MTA , a query to a dynamic DMARC module , the query containing the originating email domain, wherein the dynamic DMARC module is adapted for determining whether any DMARC local policy override published from a source system is applicable to the originating email domain; receiving, by the MTA , a response from the dynamic DMARC module , the response containing a DMARC local policy override that is published from the source system and that is associated with the originating email domain; and dynamically overriding , by the MTA , a DMARC decision on the email message with the DMARC local policy override associated with the originating email domain published from the source system , wherein the dynamic overriding results in the email message which failed DMARC being delivered. receiving , by a mail transfer agent, MTA , an electronic mail, email, message , the MTA having a processor and a non-transitory computer-readable medium ; obtaining , by the MTA , an originating email domain from the email message ; in response to the email message failing authentication , preparing and sending , by the MTA , a query to a dynamic DMARC module , the query containing the originating email domain, wherein the dynamic DMARC module is adapted for determining whether any DMARC local policy override published from a source system is applicable to the originating email domain; receiving, by the MTA , a response from the dynamic DMARC module , the response containing a DMARC local policy override that is published from the source system and that is associated with the originating email domain; and dynamically overriding , by the MTA , a DMARC decision on the email message with the DMARC local policy override associated with the originating email domain published from the source system , wherein the dynamic overriding results in the email message which failed DMARC being delivered.
A mouth piece, filter element or cooling element for an aerosol generating article comprising: a first section comprising a longitudinally extending core of filtering material having an outer surface and an inner surface , the inner surface defining a channel extending longitudinally from an end of the first section; a second section comprising a longitudinally extending core of filtering material; wherein the first section and the second section are adjacent and integral; wherein the channel has a non-circular transverse cross section which varies in the longitudinal direction by rotating about a longitudinal axis of the first section.
Use of a phenol type compound represented by the following general formula , wherein X 1 , X 2 and X 3 are each a hydrogen atom or a substituent selected from the group consisting of a hydroxyl group, an alkoxy group and an alkyl group; for improving the polymerizing activity of a dental chemical polymerization catalyst, wherein the use is not in a method of treatment of the human or animal body by surgery or therapy, and wherein the dental chemical polymerization catalyst comprises: (A) an aryl borate compound; (B) an acid compound which is an acid group-containing polymerizable monomer; (C) a vanadium compound having a valency of +IV or +V; and (D) the phenol type compound represented by general formula ; said acid compound (B) being contained in an amount of 0.1 to 100 mols per mole of the aryl borate compound (A) and said vanadium compound (C) being contained in an amount of 0.0005 to 0.015 mol per mol of said aryl borate compound (A), and wherein said phenol type compound (D) is contained in an amount of 0.05 to 200 mols per mol of said vanadium compound (C) and said phenol type compound (D) is not the compound in which X 1 and X 3 are hydrogen atoms and X 2 is a methoxy group. wherein X 1 , X 2 and X 3 are each a hydrogen atom or a substituent selected from the group consisting of a hydroxyl group, an alkoxy group and an alkyl group; for improving the polymerizing activity of a dental chemical polymerization catalyst, wherein the use is not in a method of treatment of the human or animal body by surgery or therapy, and wherein the dental chemical polymerization catalyst comprises: (A) an aryl borate compound; (B) an acid compound which is an acid group-containing polymerizable monomer; (C) a vanadium compound having a valency of +IV or +V; and (D) the phenol type compound represented by general formula ; (A) an aryl borate compound; (B) an acid compound which is an acid group-containing polymerizable monomer; (C) a vanadium compound having a valency of +IV or +V; and (D) the phenol type compound represented by general formula ; said acid compound (B) being contained in an amount of 0.1 to 100 mols per mole of the aryl borate compound (A) and said vanadium compound (C) being contained in an amount of 0.0005 to 0.015 mol per mol of said aryl borate compound (A), and wherein said phenol type compound (D) is contained in an amount of 0.05 to 200 mols per mol of said vanadium compound (C) and said phenol type compound (D) is not the compound in which X 1 and X 3 are hydrogen atoms and X 2 is a methoxy group.