mhurhangee/patent-ind-claim-en huggingface dataset:
A poly(propylene carbonate) polyol composition characterized in that the composition has: i. at least 95% -OH end groups; ii. a glass transition temperature (Tg) from -20°C to 60 °C, determined as indicated in the specification; iii. a polydispersity index (PDI) less than 2; iv. a Mn less than 15 kDa (determined as indicated in the specification); and v. greater than 95% carbonate linkages between adjacent monomer units in the polycarbonate chains; and the composition comprises polymer chains denoted P 1 having the formula T-Y-A-(Y-T) n wherein: each -T is a polycarbonate chain having a formula independently selected from the group consisting of: wherein: E is a C 3 unit derived from propylene oxide; p ranges from 5 to 75; each Y group comprises one or more repeating units of ethylene glycol; -A- is a multivalent moiety; n is from 2 to 10 inclusive; and the -Y-A-(Y-) n moiety is derived from a polyol having three, four, five or six hydroxyl groups. i. at least 95% -OH end groups; ii. a glass transition temperature (Tg) from -20°C to 60 °C, determined as indicated in the specification; iii. a polydispersity index (PDI) less than 2; iv. a Mn less than 15 kDa (determined as indicated in the specification); and v. greater than 95% carbonate linkages between adjacent monomer units in the polycarbonate chains; and the composition comprises polymer chains denoted P 1 having the formula T-Y-A-(Y-T) n wherein: each -T is a polycarbonate chain having a formula independently selected from the group consisting of: wherein: E is a C 3 unit derived from propylene oxide; p ranges from 5 to 75; each Y group comprises one or more repeating units of ethylene glycol; -A- is a multivalent moiety; n is from 2 to 10 inclusive; and the -Y-A-(Y-) n moiety is derived from a polyol having three, four, five or six hydroxyl groups. E is a C 3 unit derived from propylene oxide; p ranges from 5 to 75; each Y group comprises one or more repeating units of ethylene glycol; -A- is a multivalent moiety; n is from 2 to 10 inclusive; and the -Y-A-(Y-) n moiety is derived from a polyol having three, four, five or six hydroxyl groups.
An airway structure for a massage pool with compensation function, comprising: a pipeline , a control valve group , an air connection sleeve , a first elastic body , and a second elastic body , wherein the pipeline comprises a fixed air connection portion and a sealing plate ; the control valve group comprises a control plate and an air baffle fixedly mounted under the control plate , the control plate is located under the sealing plate , the first elastic body is attached between the pipeline and the control valve group and abuts against the air baffle of the control valve group to make the control plate abut against the sealing plate , the fixed air connection portion is provided with an air connection port , the air connection sleeve is translatable relative to the air connection port , the second elastic body is mounted between the air connection port and the air connection sleeve and abuts against the air connection sleeve to make the air connection sleeve abut against the control plate . a pipeline , a control valve group , an air connection sleeve , a first elastic body , and a second elastic body , wherein the pipeline comprises a fixed air connection portion and a sealing plate ; the control valve group comprises a control plate and an air baffle fixedly mounted under the control plate , the control plate is located under the sealing plate , the first elastic body is attached between the pipeline and the control valve group and abuts against the air baffle of the control valve group to make the control plate abut against the sealing plate , the fixed air connection portion is provided with an air connection port , the air connection sleeve is translatable relative to the air connection port , the second elastic body is mounted between the air connection port and the air connection sleeve and abuts against the air connection sleeve to make the air connection sleeve abut against the control plate .
An engine build stand for a gas turbine engine, comprising: a support structure ; a spherical bearing supported by the support structure ; and a horizontal support tool receivable to extend within and through the spherical bearing to support said engine during horizontal assembly, wherein the horizontal support tool includes: a support tube extending along an axis for insertion into a rotational hardware of the engine; a handle ; a puck assembly ; and a tie shaft ; and said tie shaft being between said handle and said puck assembly and extending within said support tube , the puck assembly including a puck to provide contact with said rotational hardware and the puck being selectively extendable and retractable transverse to the axis in response to rotation of the handle; and further comprising a turnbuckle positioned by the spherical bearing the turnbuckle being configured to adjust a position of the spherical bearing and the horizontal support tool . a support structure ; a spherical bearing supported by the support structure ; and a horizontal support tool receivable to extend within and through the spherical bearing to support said engine during horizontal assembly, a support tube extending along an axis for insertion into a rotational hardware of the engine; a handle ; a puck assembly ; and a tie shaft ; and said tie shaft being between said handle and said puck assembly and extending within said support tube , the puck assembly including a puck to provide contact with said rotational hardware and the puck being selectively extendable and retractable transverse to the axis in response to rotation of the handle; and
An electronic device comprising: a communication unit configured to perform communication with one or more external electronic devices ; and a processor configured to: receive, through the communication unit , interest information of a user of an external electronic device and system information of the external electronic device from the external electronic device , wherein the system information includes a location information of the external electronic device and a device specification of the external electronic device , and in response to identifying that the external device includes a display or a speaker based on the received device specification, determine whether to register the user in a notification service by comparing the received interest information and the received location information with notification service information of the electronic device . a communication unit configured to perform communication with one or more external electronic devices ; and a processor configured to: receive, through the communication unit , interest information of a user of an external electronic device and system information of the external electronic device from the external electronic device , wherein the system information includes a location information of the external electronic device and a device specification of the external electronic device , and in response to identifying that the external device includes a display or a speaker based on the received device specification, determine whether to register the user in a notification service by comparing the received interest information and the received location information with notification service information of the electronic device . receive, through the communication unit , interest information of a user of an external electronic device and system information of the external electronic device from the external electronic device , wherein the system information includes a location information of the external electronic device and a device specification of the external electronic device , and in response to identifying that the external device includes a display or a speaker based on the received device specification, determine whether to register the user in a notification service by comparing the received interest information and the received location information with notification service information of the electronic device .
A composition for cleansing a keratin material, comprising, in an aqueous phase: a) at least one amino acid surfactant; b) calcium alginate, wherein the weight ratio (a/b) of a) amino acid surfactant and b) calcium alginate is from 0.7 to 6. a) at least one amino acid surfactant; b) calcium alginate, wherein the weight ratio (a/b) of a) amino acid surfactant and b) calcium alginate is from 0.7 to 6.
A computer-implemented method for monitoring a battery installed in an analyte sensor system configured to be worn by a user, comprising: measuring a value indicative of a current power level of the battery ; and predicting remaining useful life of the battery based on the measured value indicative of the current power level and an assumed future usage of the analyte sensor system , wherein the usage is the frequency of different types of transmission events and wherein the assumed future usage is based on stored history of prior usage of the analyte sensor system . measuring a value indicative of a current power level of the battery ; and predicting remaining useful life of the battery based on the measured value indicative of the current power level and an assumed future usage of the analyte sensor system , wherein the usage is the frequency of different types of transmission events and wherein the assumed future usage is based on stored history of prior usage of the analyte sensor system .
An online continuous flow production method for the direct synthesis of organic peroxide, comprising feeding raw material including hydrogen peroxide, a catalyst and an oxidized substrate continuously into inlets of a plug-and-produce integrated continuous flow reactor wherein the plug-and-produce integrated flow reactor comprises an oxidation unit and a workup unit; and obtaining organic peroxide at outlets of the plug-and-produce integrated continuous flow reactor; wherein the catalyst is acid or alkali, and the organic peroxide is selected from the group consisting of alkyl peroxide oxide, dialkyl peroxide, peroxycarboxylic acid, diacyl peroxide, peroxydicarbonate, and peroxyketal; wherein the oxidized substrate is selected from the group consisting of alcohol, carboxylic acid, anhydride, ketone, acyl chloride, and chloroformate; wherein a general formula of a production process inside the plug-and-produce integrated continuous flow reactor is as follows: wherein A is the oxidation substrate, including alcohol, carboxylic acid, anhydride, ketone, acyl chloride and chloroformate; and C is alkyl peroxide, dialkyl peroxide, peroxycarboxylic acid, diacyl peroxide, peroxydicarbonate and peroxyketal; and optionally, wherein the production time of the production process is equal to or less than 6 min; preferably, the production time is 1 to 6min; more preferably, the production time is 2 to 5min; more preferably, the production time is 3 to 4min. feeding raw material including hydrogen peroxide, a catalyst and an oxidized substrate continuously into inlets of a plug-and-produce integrated continuous flow reactor wherein the plug-and-produce integrated flow reactor comprises an oxidation unit and a workup unit; and obtaining organic peroxide at outlets of the plug-and-produce integrated continuous flow reactor; wherein the catalyst is acid or alkali, and the organic peroxide is selected from the group consisting of alkyl peroxide oxide, dialkyl peroxide, peroxycarboxylic acid, diacyl peroxide, peroxydicarbonate, and peroxyketal; wherein the oxidized substrate is selected from the group consisting of alcohol, carboxylic acid, anhydride, ketone, acyl chloride, and chloroformate; wherein a general formula of a production process inside the plug-and-produce integrated continuous flow reactor is as follows: wherein A is the oxidation substrate, including alcohol, carboxylic acid, anhydride, ketone, acyl chloride and chloroformate; and C is alkyl peroxide, dialkyl peroxide, peroxycarboxylic acid, diacyl peroxide, peroxydicarbonate and peroxyketal; and optionally, wherein the production time of the production process is equal to or less than 6 min; preferably, the production time is 1 to 6min; more preferably, the production time is 2 to 5min; more preferably, the production time is 3 to 4min.
System including pressure cylinder valve with integrated pressure regulator (VIPR) having a VIPR non-return valve and comprising an activation shaft and a medical gas filler adapter for emptying and filling the pressure cylinder , where said medical gas filler adapter comprises an integrated adapter non-return valve for use in filling and testing VIPR valve , and a first end and a second end , wherein at least one gas connection is arranged between said first end and said second end , characterized in that, the first end is configured to be connected to the VIPR valve and the second end is configured to be connected to the activation shaft that is able to open the adapter non-return valve ; where the adapter non-return valve via a spring is spring-loaded toward a closed position in direction of the second end , whereby the at least one gas connection is closed when the adapter non-return valve is closed that the adapter non-return valve comprises an actuator pin configured to activate said VIPR non-return valve and where the actuator pin is configured to be moved in different length by means of said activation shaft .
An epinephrine spray formulation for use in a method of treating anaphylaxis, wherein the formulation comprises: from about 0.1 % to about 15 % w/w epinephrine, or a salt thereof; from about 1 % to about 65 % w/w hydrochloric acid with a normality from about 0.1 to 12N; from about 2 % to about 60 % w/w ethanol; from about 2% to about 98 % w/w water; from about 0.001 % to about 0.5 % w/w sodium bisulfite; from about 0.005 % to about 1 % w/w edetate disodium dihydrate and, from about 0.001% to about 0.5% w/w benzalkonium chloride; and wherein the formulation is administered via the intranasal route; wherein w/w denotes weight by weight of the formulation and, wherein "about" is defined as ± 10 % of the value modified. from about 0.1 % to about 15 % w/w epinephrine, or a salt thereof; from about 1 % to about 65 % w/w hydrochloric acid with a normality from about 0.1 to 12N; from about 2 % to about 60 % w/w ethanol; from about 2% to about 98 % w/w water; from about 0.001 % to about 0.5 % w/w sodium bisulfite; from about 0.005 % to about 1 % w/w edetate disodium dihydrate and, from about 0.001% to about 0.5% w/w benzalkonium chloride; and wherein the formulation is administered via the intranasal route;
Arrangement for determining one or more rotation errors of a rotating apparatus (2; 201), in particular a rotating apparatus for a coordinate measuring machine, with respect to one or more degrees of freedom of movement, in which a real rotating movement of the rotating apparatus (2; 201) differs from an ideal rotating movement, with a test body (1; 100; 101; 102), wherein the test body comprises: - a holder which, together with a part of the rotating apparatus , can be rotated about an axis of rotation (D; A; B) and which is configured to arrange or fasten the test body with respect to the axis of rotation about which the test body can be rotated for the purpose of determining the rotation error or the rotation errors, - a plurality of test elements (5, 8, 9; 5, 10; 500, 800), which are rigidly connected to the holder or are formed on the holder, wherein each of the test elements serves for determining the rotation error with respect to one or more of the degrees of freedom of movement, wherein a first of the test elements is a reflector (5; 500), which is aligned transversely to the axis of rotation and reflects radiation incident on it in a direction dependent on the rotational angle of the test body, wherein a second of the test elements is a rotationally symmetrical measurement body (8, 9; 10; 800), the axis of symmetry of which can be arranged coaxially in relation to the axis of rotation, characterized in that the arrangement comprises a plurality of sensors (73, 74, 75, 76, 77, 88; 81, 88, 741, 761; 79), which are respectively assigned to one or more of the test elements of the test body (5, 8, 9; 500, 501; 503) and are configured to measure deviations with respect to at least one of the degrees of freedom of movement, wherein the reflector is assigned an angle sensor and/or a distance sensor , wherein a rotation of the test body about an axis of rotation (D; B) of the rotating apparatus (2; 201) and/or a rotation of the test body about one or more axes that are transverse to the axis of rotation (D, A, B) and/or an unchanging position of the test body can be sensed by the angle sensor, and a translational error can be determined by the distance sensor by measuring the distance between the reflector and the distance sensor , wherein the rotationally symmetrical measurement body (8, 9; 10; 800) is assigned distance sensors , with which translational deviations in directions transverse to the axis of rotation (D; A; B) can be determined. - a holder which, together with a part of the rotating apparatus , can be rotated about an axis of rotation (D; A; B) and which is configured to arrange or fasten the test body with respect to the axis of rotation about which the test body can be rotated for the purpose of determining the rotation error or the rotation errors, - a plurality of test elements (5, 8, 9; 5, 10; 500, 800), which are rigidly connected to the holder or are formed on the holder, wherein each of the test elements serves for determining the rotation error with respect to one or more of the degrees of freedom of movement,
A method for controlling the effects caused by thermal expansion of components of an injection mold, wherein the force effect between the components caused by thermal expansion of components heated and cooled within the mold is measured by means of at least one force sensor , and the measured force value is kept within a desired range by means of one or more actuators installed in connection with the components compensating for the force effects caused by temperature changes, characterized in that the operating movement of the actuator compensating for the force effect is based on controlling the thermal expansion of the actuator by adjusting the temperature of the actuator .
A film-forming silicone emulsion composition comprising: (A) 100 parts by weight of organopolysiloxane having per molecule at least two groups selected from silicon-bonded hydroxyl groups and alkoxy groups, (B) from 0.1 to 50 parts by weight of surfactant, (C) from 0.01 to 10 parts by weight of one or more substances selected from cellulose and cellulose derivatives, (D) from 0.5 to 50 parts by weight of colloidal silica, and (E) from 50 to 1,000 parts by weight of water, characterized in that : i) the composition consists of components (A) to (E), optionally with any of thickeners, defoamers, pigments, inorganic powders, penetrants, antistatic agents and preservatives; ii) the composition contains no organotin compounds or inorganic tin compounds as curing catalysts, or iii) component (C) is cellulose nanofibers. (A) 100 parts by weight of organopolysiloxane having per molecule at least two groups selected from silicon-bonded hydroxyl groups and alkoxy groups, (B) from 0.1 to 50 parts by weight of surfactant, (C) from 0.01 to 10 parts by weight of one or more substances selected from cellulose and cellulose derivatives, (D) from 0.5 to 50 parts by weight of colloidal silica, and (E) from 50 to 1,000 parts by weight of water, i) the composition consists of components (A) to (E), optionally with any of thickeners, defoamers, pigments, inorganic powders, penetrants, antistatic agents and preservatives; ii) the composition contains no organotin compounds or inorganic tin compounds as curing catalysts, or iii) component (C) is cellulose nanofibers.
An ink jet recording method comprising: an ejection step of ejecting, onto a substrate, an ink composition A that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein, and an ink composition B that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein; and an irradiation step of irradiating, with light, the ink composition A and the ink composition B ejected on the substrate, wherein an absorbance ABS A of the ink composition A and an absorbance ABS B of the ink composition B satisfy a formula below, a concentration M A of the microcapsule included in the ink composition A and a concentration M B of the microcapsule included in the ink composition B satisfy a formula below, and ABS A , ABS B , M A , and M B satisfy a formula below: ABS A < ABS B M A < M B 1 + 0.1 × ABS B / ABS A × M A < M B < 1 + 0.4 × ABS B / ABS A × M A where ABS A and ABS B respectively represent an average of absorbances of the ink composition A in wavelengths of 360 to 390 nm and an average of absorbances of the ink composition B in wavelengths of 360 to 390 nm, and M A and M B , respectively, represent on a mass basis, a concentration of the microcapsule included in the ink composition A, and a concentration of the microcapsule included in the ink composition B. an ejection step of ejecting, onto a substrate, an ink composition A that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein, and an ink composition B that includes water, a coloring agent, a photopolymerization initiator, and a microcapsule enclosing at least a polymerizable compound therein; and an irradiation step of irradiating, with light, the ink composition A and the ink composition B ejected on the substrate, wherein an absorbance ABS A of the ink composition A and an absorbance ABS B of the ink composition B satisfy a formula below, a concentration M A of the microcapsule included in the ink composition A and a concentration M B of the microcapsule included in the ink composition B satisfy a formula below, and ABS A , ABS B , M A , and M B satisfy a formula below: ABS A < ABS B M A < M B 1 + 0.1 × ABS B / ABS A × M A < M B < 1 + 0.4 × ABS B / ABS A × M A where ABS A and ABS B respectively represent an average of absorbances of the ink composition A in wavelengths of 360 to 390 nm and an average of absorbances of the ink composition B in wavelengths of 360 to 390 nm, and M A and M B , respectively, represent on a mass basis, a concentration of the microcapsule included in the ink composition A, and a concentration of the microcapsule included in the ink composition B.