mhurhangee/patent-ind-claim-en huggingface dataset:
A delaminatable container , having a main body portion and an opening portion , wherein the opening portion is located closer to an opening of the delaminatable container than the main body portion located thereto, an accommodation space of the delaminatable container is formed by a body inner surface of the main body portion and an opening inner surface of the opening portion , and the delaminatable container comprises: a first layer comprising a first tightly-attached section ; and a second layer , wherein at the main body portion , the first layer is located closer to the body inner surface than the second layer located thereto and is exposed on the body inner surface , the second layer comprises a second tightly-attached section , and the first tightly-attached section and the second tightly-attached section are tightly attached to each other; wherein the first tightly-attached section and the second tightly-attached section are both located at the opening portion of the delaminatable container ; characterized in that the second tightly-attached section comprises a second opening segment , and the second opening segment is exposed on the opening inner surface and extended along a direction from the opening towards the main body portion , the first tightly-attached section comprises a sandwiched segment , the second tightly-attached section further comprises an inner tightly-attached segment , the sandwiched segment and at least one part of the inner tightly-attached segment are tightly attached to each other, the sandwiched segment is not exposed on the opening inner surface , and the second opening segment is connected to the inner tightly-attached segment . a first layer comprising a first tightly-attached section ; and a second layer , wherein at the main body portion , the first layer is located closer to the body inner surface than the second layer located thereto and is exposed on the body inner surface , the second layer comprises a second tightly-attached section , and the first tightly-attached section and the second tightly-attached section are tightly attached to each other; wherein the first tightly-attached section and the second tightly-attached section are both located at the opening portion of the delaminatable container ; characterized in that the second tightly-attached section comprises a second opening segment , and the second opening segment is exposed on the opening inner surface and extended along a direction from the opening towards the main body portion , the first tightly-attached section comprises a sandwiched segment , the second tightly-attached section further comprises an inner tightly-attached segment , the sandwiched segment and at least one part of the inner tightly-attached segment are tightly attached to each other, the sandwiched segment is not exposed on the opening inner surface , and the second opening segment is connected to the inner tightly-attached segment .
Method of producing an integrated electronic circuit (100-600) comprising at least the steps of: - producing a substrate comprising at least a first and second layer of semiconductor between which at least a third layer of material is placed, then - producing at least a first MOS device , an active area of which is formed in at least part of the first layer of semiconductor , then - producing at least a second MOS device , an active area of which is formed in at least part of the second layer of semiconductor , the active area of the second MOS device being placed between a gate of the second MOS device and the active area of the first MOS device . - producing a substrate comprising at least a first and second layer of semiconductor between which at least a third layer of material is placed, then - producing at least a first MOS device , an active area of which is formed in at least part of the first layer of semiconductor , then - producing at least a second MOS device , an active area of which is formed in at least part of the second layer of semiconductor , the active area of the second MOS device being placed between a gate of the second MOS device and the active area of the first MOS device .
A flexible device having a longitudinal axis, comprising: a first elongate member configured to move the flexible device in a first direction relative to the longitudinal axis; a second elongate member configured to move the flexible device in a second direction relative to the longitudinal axis that is different to the first direction; an articulation section including articulation links , wherein at least one of the articulation links includes a body having a first lumen and a second lumen receiving the first elongate member and the second elongate member , respectively, wherein the first and second elongate members (100a; 100b) extend through the first and second lumens (110a; 110b), respectively, and wherein the first and second elongate members (100a; 100b) are configured to move the articulation section between a straight configuration and a curved configuration; and first and second cinching elements within the first lumen , wherein the first and second cinching elements are engaged with one or more sides of the first elongate member , to limit movement between the first elongate member and the articulation section , when the articulation section is in the curved configuration, and wherein the first and second cinching elements are disengaged from the first elongate member , to permit movement between the first elongate member and the articulation section , when the articulation section is in the straight configuration. a first elongate member configured to move the flexible device in a first direction relative to the longitudinal axis; a second elongate member configured to move the flexible device in a second direction relative to the longitudinal axis that is different to the first direction; an articulation section including articulation links , wherein at least one of the articulation links includes a body having a first lumen and a second lumen receiving the first elongate member and the second elongate member , respectively, wherein the first and second elongate members (100a; 100b) extend through the first and second lumens (110a; 110b), respectively, and wherein the first and second elongate members (100a; 100b) are configured to move the articulation section between a straight configuration and a curved configuration; and first and second cinching elements within the first lumen , wherein the first and second cinching elements are engaged with one or more sides of the first elongate member , to limit movement between the first elongate member and the articulation section , when the articulation section is in the curved configuration, and wherein the first and second cinching elements are disengaged from the first elongate member , to permit movement between the first elongate member and the articulation section , when the articulation section is in the straight configuration.
A method for fabricating a door provided at a laundry treating apparatus, the method comprising: mounting (S10) a front glass to a front glass mounting jig , and mounting a door frame to a door frame mounting jig , wherein the door frame includes an outer frame and an inner frame , and a mounting guide (21a") protrudes along an outer circumference of the outer frame ; applying (S20) an adhesive to the door frame ; lifting (S30) the front glass and then mounting the front glass onto the door frame ; moving (S40) the door frame mounting jig to a compression jig ; attaching (S50) the front glass to the door frame by using the compression jig ; separating (S60) the door frame mounting jig from the compression jig ; and separating (S70) an assembly of the front glass attached to the door frame , from the door frame mounting jig ; wherein in the applying (S40) of the adhesive to the door frame , the adhesive is applied along an adhesive filling groove (21a1) formed to enclose an opening of the door frame ; wherein the adhesive is applied along the adhesive filling groove (21a1) in a discontinuous manner, and wherein adhesive portions are spaced apart from each by a predetermined separation interval; and wherein the mounting guide (21a") is arranged to enclose an outer circumferential surface of the front glass . mounting (S10) a front glass to a front glass mounting jig , and mounting a door frame to a door frame mounting jig , wherein the door frame includes an outer frame and an inner frame , and a mounting guide (21a") protrudes along an outer circumference of the outer frame ; applying (S20) an adhesive to the door frame ; lifting (S30) the front glass and then mounting the front glass onto the door frame ; moving (S40) the door frame mounting jig to a compression jig ; attaching (S50) the front glass to the door frame by using the compression jig ; separating (S60) the door frame mounting jig from the compression jig ; and separating (S70) an assembly of the front glass attached to the door frame , from the door frame mounting jig ; wherein in the applying (S40) of the adhesive to the door frame , the adhesive is applied along an adhesive filling groove (21a1) formed to enclose an opening of the door frame ; wherein the adhesive is applied along the adhesive filling groove (21a1) in a discontinuous manner, and wherein adhesive portions are spaced apart from each by a predetermined separation interval; and wherein the mounting guide (21a") is arranged to enclose an outer circumferential surface of the front glass .
A finger activated mouse device/switching device comprising: an enclosure having a top wall , a bottom wall , and a pair of opposing side walls ; first and second upper lever/elongated buttons , each of the first and second upper lever/elongated buttons having a rest position; first and second switching elements positioned within the enclosure and respectively connected to the first and second upper lever/elongated buttons; and first and second restoring elements positioned within the enclosure and respectively connected to the first and second upper lever/elongated buttons; wherein downward displacement of the first or second upper lever/elongated button activates the first or second switching element respectively; and wherein the first and second restoring elements are respectively configured to restore the first and second upper lever/elongated buttons to their respective rest positions after completion of a displacement operation; characterised in that each of the first and second upper lever/elongated buttons is pivotally supported on the top wall , attached to the top wall by a support arm, and spaced apart from the top wall during a non-use condition; wherein the upper lever/elongated button provides an el evatedtep surface for supporting a finger of a user and wherein the upper lever/elongated button is configured to be downwardly displaced by a proximal phalanx of the finger. an enclosure having a top wall , a bottom wall , and a pair of opposing side walls ; first and second upper lever/elongated buttons , each of the first and second upper lever/elongated buttons having a rest position; first and second switching elements positioned within the enclosure and respectively connected to the first and second upper lever/elongated buttons; and first and second restoring elements positioned within the enclosure and respectively connected to the first and second upper lever/elongated buttons; wherein downward displacement of the first or second upper lever/elongated button activates the first or second switching element respectively; and wherein the first and second restoring elements are respectively configured to restore the first and second upper lever/elongated buttons to their respective rest positions after completion of a displacement operation; characterised in that each of the first and second upper lever/elongated buttons is pivotally supported on the top wall , attached to the top wall by a support arm, and spaced apart from the top wall during a non-use condition; wherein the upper lever/elongated button provides an el evatedtep surface for supporting a finger of a user and wherein the upper lever/elongated button is configured to be downwardly displaced by a proximal phalanx of the finger.
A method for transmitting traffic sign information to at least one road user currently affected by the traffic sign information, in particular to at least one vehicle, via a cellular mobile radio network , in which the traffic sign information is transmitted from at least one traffic sign system to a central server , the transmitted traffic sign information is linked to a location of the at least one traffic sign system and is transmitted together with location information of the at least one traffic sign system by the central server within at least one cell (A, B) of the mobile radio network by means of at least one broadcast/multicast message, the at least one road user being located within the at least one cell (A, B) at the time of the transmission, characterized in that , with regard to a respective change frequency with which the respective traffic sign information changes temporally, the traffic sign information is differentiated, evaluated and arranged in a ranking relative to one another and is transmitted respectively in accordance with such ranking with a transmission frequency assigned to a respective ranking position.
A binder composition for a non-aqueous secondary battery electrode comprising: a water-soluble polymer including a (meth)acrylamide monomer unit; and a compound A selected from the group consisting of hydroxylamine sulfate, diethylhydroxylamine, dimethylhydroxylamine, dipropylhydroxylamine, isopropylhydroxylamine, and isothiazoline compounds, and combinations thereof, wherein percentage content M0 of the (meth)acrylamide monomer unit is at least 40 mass% and not more than 100 mass% relative to 100 mass% of all monomer units of the water-soluble polymer, and content M1 of the compound A is at least 0.01 parts by mass and not more than 0.5 parts by mass per 100 parts by mass of solid content of the water-soluble polymer, and the water-soluble polymer is a polymer that when 0.5 g of the polymer is dissolved in 100 g of water at a temperature of 25°C, insoluble content is less than 1.0 mass%. a water-soluble polymer including a (meth)acrylamide monomer unit; and a compound A selected from the group consisting of hydroxylamine sulfate, diethylhydroxylamine, dimethylhydroxylamine, dipropylhydroxylamine, isopropylhydroxylamine, and isothiazoline compounds, and combinations thereof, wherein percentage content M0 of the (meth)acrylamide monomer unit is at least 40 mass% and not more than 100 mass% relative to 100 mass% of all monomer units of the water-soluble polymer, and content M1 of the compound A is at least 0.01 parts by mass and not more than 0.5 parts by mass per 100 parts by mass of solid content of the water-soluble polymer, and the water-soluble polymer is a polymer that when 0.5 g of the polymer is dissolved in 100 g of water at a temperature of 25°C, insoluble content is less than 1.0 mass%.
An anti-vibration rubber composition comprising: a rubber component comprising a natural rubber, and antioxidants, carbon black and sulfur, wherein the anti-vibration rubber composition comprises: a compound having a carbon-carbon double bond at a terminal and a carbonyl group at an α position thereof and an imidazole antioxidant as the antioxidants, wherein the compound having a carbon-carbon double bond at a terminal and a carbonyl group at an α position thereof is a compound represented by the following general formula (I) wherein, R 1 is a hydrogen atom or a methyl group, R 2 is a group represented by R 4 -R 3 -, wherein R 3 is selected from the group consisting of a single bond, substituted or unsubstituted alkylene groups having 1 to 5 carbon atoms, and substituted or unsubstituted oxyalkylene groups having 1 to 5 carbon atoms in which an oxygen atom of the oxyalkylene group binds to the carbon atom of the carbonyl group, and R 4 is selected from the group consisting of diphenylamino group, 1-naphthylamino group, 2-naphthylamino group, anilino group, ditolylamino group and p-(phenylamino)anilino group, wherein the content of the compound having a double bond at a terminal and a carbonyl group at an α position thereof is 0.2 to 13 parts by mass based on 100 parts by mass of the rubber component, the content of the imidazole antioxidant is 0.1 to 10 parts by mass based on 100 parts by mass of the rubber component, wherein the carbon black is FEF. R 1 is a hydrogen atom or a methyl group, R 2 is a group represented by R 4 -R 3 -, wherein R 3 is selected from the group consisting of a single bond, substituted or unsubstituted alkylene groups having 1 to 5 carbon atoms, and substituted or unsubstituted oxyalkylene groups having 1 to 5 carbon atoms in which an oxygen atom of the oxyalkylene group binds to the carbon atom of the carbonyl group, and R 4 is selected from the group consisting of diphenylamino group, 1-naphthylamino group, 2-naphthylamino group, anilino group, ditolylamino group and p-(phenylamino)anilino group, wherein the content of the compound having a double bond at a terminal and a carbonyl group at an α position thereof is 0.2 to 13 parts by mass based on 100 parts by mass of the rubber component, the content of the imidazole antioxidant is 0.1 to 10 parts by mass based on 100 parts by mass of the rubber component, wherein the carbon black is FEF.
A lawn care device comprising: an engine to selectively power the device; a frame supporting the engine and an operator of the device; and an ignition interface comprising processing circuitry configured to define a plurality of operating modes comprising at least: a starting mode in which the ignition interface is usable by the operator to start the engine, and a running mode in which the engine is running, wherein the ignition interface comprises code entry keys configured to, responsive to entry of a code via the code entry keys , enable use of the ignition interface to shift from the starting mode to the running mode without a physical starting key, and wherein each of the code entry keys is configured to provide code entry input to the processing circuitry in one mode and at least one of the code entry keys is configured to perform a function different than providing code entry input in at least one other mode. an engine to selectively power the device; a frame supporting the engine and an operator of the device; and an ignition interface comprising processing circuitry configured to define a plurality of operating modes comprising at least: a starting mode in which the ignition interface is usable by the operator to start the engine, and a running mode in which the engine is running, wherein the ignition interface comprises code entry keys configured to, responsive to entry of a code via the code entry keys , enable use of the ignition interface to shift from the starting mode to the running mode without a physical starting key, and wherein each of the code entry keys is configured to provide code entry input to the processing circuitry in one mode and at least one of the code entry keys is configured to perform a function different than providing code entry input in at least one other mode. a starting mode in which the ignition interface is usable by the operator to start the engine, and a running mode in which the engine is running, wherein the ignition interface comprises code entry keys configured to, responsive to entry of a code via the code entry keys , enable use of the ignition interface to shift from the starting mode to the running mode without a physical starting key, and wherein each of the code entry keys is configured to provide code entry input to the processing circuitry in one mode and at least one of the code entry keys is configured to perform a function different than providing code entry input in at least one other mode.
Method implemented by a UWB system of a vehicle , said UWB system including at least two UWB sensors , with a view to determining a zone in which a UWB device is located among a predetermined set of zones , by applying a function dependent on a set of physical quantities including, for each respective UWB sensor , at least one respective physical quantity dependent on the position of the UWB device with respect to the respective UWB sensor , the function comprising one or more generalized linear models, each generalized linear model taking as input a respective subset of the physical quantities, each generalized linear model comprising respective weights and a respective decision boundary, the method comprising: • by each respective UWB sensor , carrying out a measurement with a view to obtaining a measured value of the respective physical quantity, the measurement by one or more first UWB sensors succeeding, and the measurement by one or more second UWB sensors failing, the respective subset of at least one generalized linear model comprising at least one physical quantity for which the measurement failed; • for each generalized linear model comprising at least one physical quantity for which the measurement failed, and for each physical quantity for which the measurement failed, determination of a replacement value of the physical quantity for application of the generalized linear model, the replacement value being equal to the antecedent of the respective decision boundary by the generalized linear model divided by the sum of the respective weights; and • evaluation of the function based on the set consisting of each measured value and of each replacement value. • by each respective UWB sensor , carrying out a measurement with a view to obtaining a measured value of the respective physical quantity, the measurement by one or more first UWB sensors succeeding, and the measurement by one or more second UWB sensors failing, the respective subset of at least one generalized linear model comprising at least one physical quantity for which the measurement failed; • for each generalized linear model comprising at least one physical quantity for which the measurement failed, and for each physical quantity for which the measurement failed, determination of a replacement value of the physical quantity for application of the generalized linear model, the replacement value being equal to the antecedent of the respective decision boundary by the generalized linear model divided by the sum of the respective weights; and • evaluation of the function based on the set consisting of each measured value and of each replacement value.