mhurhangee/patent-ind-claim-en huggingface dataset:
A tire comprising a carcass ply as a skeleton, wherein the carcass ply is reinforced by a steel cord including no wrapping filament, the steel cord is composed of a plurality of steel filaments having 3 or more core filaments, at least a part of a surface of each of the plurality of steel filaments is coated with a resin material containing at least an ionomer, and when a resin component contained in the resin material is composed of a single resin, a melting point of the resin material is 150°C or less, and when the resin component is composed of a composition containing two or more resins, a softening point of the resin material is 150°C or less, wherein the softening point refers to a value measured using a softening point test method described in JIS K 7206 ; and wherein the steel cord includes a core portion composed of the core filaments and at least one sheath layer arranged on an outer periphery of the core portion; and wherein the resin material further contains a maleic acid-modified resin and a mass ratio of the maleic acid-modified resin to the ionomer is from 4:6 to 6:4.
A dome-actuator structure for use in a dome switch , said dome-actuator structure structure comprising: - a substantially horizontal lower dome ; - an upper actuator portion attached to the lower dome and that is positioned vertically over the lower dome such that depressing of the actuator portion operates to depress the lower dome ; - and a lateral arm that couples the actuator portion to the lower dome , the lateral arm and the lower dome being formed from a common piece of material, characterised in that the actuator portion is an actuation block , made of plastic or synthetic material or made of natural or synthetic elastomer, fixed to the lateral arm . - a substantially horizontal lower dome ; - an upper actuator portion attached to the lower dome and that is positioned vertically over the lower dome such that depressing of the actuator portion operates to depress the lower dome ; - and a lateral arm that couples the actuator portion to the lower dome , the lateral arm and the lower dome being formed from a common piece of material,
A method of delivering a fracturing fluid to a wellbore, the method comprising the steps of: providing a turbine generator at a well site, wherein the turbine generator provides a source of electrical power; providing at least one electric fracturing module, the electric fracturing module configured to be removably mounted on a trailer as one of a plurality of electric fracturing modules removably mounted on the trailer and comprising an electric motor and a coupled fluid pump, wherein the electric motor and coupled fluid pump are connected to a framed housing, and the electric fracturing module being defined by the electric motor paired to the pump and connected to the framed housing, the electric motor operatively associated with the source of electric power, wherein the fluid pump provides fracturing fluid to the wellbore, and wherein each fracturing module can be removed from the trailer while another one of the plurality of fracturing modules continues to provide fracturing fluid to the wellbore; connecting the fluid pump to the wellbore; and pumping fracturing fluid into the wellbore. providing a turbine generator at a well site, wherein the turbine generator provides a source of electrical power; providing at least one electric fracturing module, the electric fracturing module configured to be removably mounted on a trailer as one of a plurality of electric fracturing modules removably mounted on the trailer and comprising an electric motor and a coupled fluid pump, wherein the electric motor and coupled fluid pump are connected to a framed housing, and the electric fracturing module being defined by the electric motor paired to the pump and connected to the framed housing, the electric motor operatively associated with the source of electric power, wherein the fluid pump provides fracturing fluid to the wellbore, and wherein each fracturing module can be removed from the trailer while another one of the plurality of fracturing modules continues to provide fracturing fluid to the wellbore; connecting the fluid pump to the wellbore; and pumping fracturing fluid into the wellbore.
An advancer assembly for an atherectomy device, comprising: a housing ; a drive mechanism positioned within the housing ; an actuation mechanism in communication with the drive mechanism and accessible from exterior of the housing ; a first operation module; a second operation module; and wherein a single adjustment of the actuation mechanism adjusts a setting of the first operation module of the advancer assembly and a setting of the second operation module of the advancer assembly , wherein the first operation module of the advancer assembly is a speed module configured to adjust a speed setting of the drive mechanism between a first non-zero speed setting, a second non-zero speed setting, and a zero speed setting in response to the adjustment of the actuation mechanism , wherein the first non-zero speed setting is associated with a rotational speed for a rotational device that facilitates advancement of the rotational device through an obstruction or occlusion in a vessel of a patient and the second non-zero speed setting is associated with a rotational speed for the rotational device that facilitates withdrawal of the rotational device within the vessel while mitigating risks of injury to the patient, and wherein the second operation module of the advancer assembly is a braking module configured to activate or deactivate a braking assembly configured to engage a guidewire extending through the housing in response to the adjustment of the actuation mechanism . a housing ; a drive mechanism positioned within the housing ; an actuation mechanism in communication with the drive mechanism and accessible from exterior of the housing ; a first operation module; a second operation module; and wherein a single adjustment of the actuation mechanism adjusts a setting of the first operation module of the advancer assembly and a setting of the second operation module of the advancer assembly , wherein the first operation module of the advancer assembly is a speed module configured to adjust a speed setting of the drive mechanism between a first non-zero speed setting, a second non-zero speed setting, and a zero speed setting in response to the adjustment of the actuation mechanism , wherein the first non-zero speed setting is associated with a rotational speed for a rotational device that facilitates advancement of the rotational device through an obstruction or occlusion in a vessel of a patient and the second non-zero speed setting is associated with a rotational speed for the rotational device that facilitates withdrawal of the rotational device within the vessel while mitigating risks of injury to the patient, and wherein the second operation module of the advancer assembly is a braking module configured to activate or deactivate a braking assembly configured to engage a guidewire extending through the housing in response to the adjustment of the actuation mechanism .
A pectus bar assembly characterised in that it comprises: a bar support comprising: a band configured to encircle a first rib of a human ribcage and a second rib of the human ribcage, the band comprising a first end and a second end opposite the first end; a fastener coupleable to the first end, the second end releasably securable to the fastener to tension the band around the first rib and the second rib , wherein the fastener comprises a buckle extending from the second end; and a pectus bar comprising an elongate body, the elongate body comprising: an anterior side; and a posterior side opposite the anterior side, the posterior side supportable by the bar support between the first rib and the second rib . a band configured to encircle a first rib of a human ribcage and a second rib of the human ribcage, the band comprising a first end and a second end opposite the first end; a fastener coupleable to the first end, the second end releasably securable to the fastener to tension the band around the first rib and the second rib , wherein the fastener comprises a buckle extending from the second end; and a pectus bar comprising an elongate body, the elongate body comprising: an anterior side; and a posterior side opposite the anterior side, the posterior side supportable by the bar support between the first rib and the second rib .
A baler implement comprising: a pick-up operable to gather and move crop material; a housing extending along a central longitudinal axis between a forward end and a rearward end , the housing including a bottom wall partially defining a compression chamber , the bottom wall defining a chamber inlet ; a lower passage wall defining a lower boundary of a pre-compression passageway interconnecting the pick-up and the chamber inlet , the lower passage wall including an access panel moveable between an operating position for guiding crop material from the pick-up to the chamber inlet and an access position for providing access to the pre-compression passageway ; wherein the access panel includes a first transverse edge and a second transverse edge , with the first transverse edge positioned forward of the second transverse edge relative to the forward end of the housing , and with the first transverse edge positioned vertically below the second transverse edge relative to an elevation of the bottom wall of the housing when the access panel is disposed in the operating position; and a pivotable connection supporting the access panel and configured such that the second transverse edge of the access panel moves vertically relative to the elevation of the bottom wall as the access panel moves between the operating position and the access position to provide access into the pre-compression passageway , characterized in that the pivotable connection includes a pivot link interconnecting the pivotable connection and the access panel . a pick-up operable to gather and move crop material; a housing extending along a central longitudinal axis between a forward end and a rearward end , the housing including a bottom wall partially defining a compression chamber , the bottom wall defining a chamber inlet ; a lower passage wall defining a lower boundary of a pre-compression passageway interconnecting the pick-up and the chamber inlet , the lower passage wall including an access panel moveable between an operating position for guiding crop material from the pick-up to the chamber inlet and an access position for providing access to the pre-compression passageway ; wherein the access panel includes a first transverse edge and a second transverse edge , with the first transverse edge positioned forward of the second transverse edge relative to the forward end of the housing , and with the first transverse edge positioned vertically below the second transverse edge relative to an elevation of the bottom wall of the housing when the access panel is disposed in the operating position; and a pivotable connection supporting the access panel and configured such that the second transverse edge of the access panel moves vertically relative to the elevation of the bottom wall as the access panel moves between the operating position and the access position to provide access into the pre-compression passageway ,
A method of providing an image, the method being executed by an image capture apparatus , the method comprising: receiving , by the image capture apparatus from a mobile device , a first input instructing the image capture apparatus to initiate capturing of a sequence of images, where the first input is when a shutter button of the mobile device is pressed; capturing the sequence of images, in response to the first input; transmitting the sequence of images to the mobile device ; receiving , by the image capture apparatus from the mobile device during capturing the sequence of images in response to the first input, a second input instructing the image capture apparatus to select at least one image of the sequence of images, where the second input is when the shutter button is held and released; and selecting the at least one image of the sequence of images based on a time at which the second input is received by the image capture apparatus; wherein the at least one image of the sequence of images is captured prior to the time at which the second input is received by the image capture apparatus ; and wherein the method further comprises: if the at least one image is a portrait image, detecting information of a person in the at least one image using face detection; and transmitting the at least one image to a person corresponding to the information detected in the at least one image by email based on information in an address book stored at the image capturing apparatus . receiving , by the image capture apparatus from a mobile device , a first input instructing the image capture apparatus to initiate capturing of a sequence of images, where the first input is when a shutter button of the mobile device is pressed; capturing the sequence of images, in response to the first input; transmitting the sequence of images to the mobile device ; receiving , by the image capture apparatus from the mobile device during capturing the sequence of images in response to the first input, a second input instructing the image capture apparatus to select at least one image of the sequence of images, where the second input is when the shutter button is held and released; and selecting the at least one image of the sequence of images based on a time at which the second input is received by the image capture apparatus; wherein the at least one image of the sequence of images is captured prior to the time at which the second input is received by the image capture apparatus ; and if the at least one image is a portrait image, detecting information of a person in the at least one image using face detection; and transmitting the at least one image to a person corresponding to the information detected in the at least one image by email based on information in an address book stored at the image capturing apparatus .
A method for protecting the integrity of measurement data acquired by a sensor device , comprising: • in response to measurement data being acquired , determining , by the sensor device , whether an aggregate value has already been generated, and: ∘ if an aggregate value has not yet been obtained, mapping , by means of a predetermined aggregation function (H) that takes measurement data as a mandatory argument and a previously generated aggregate value as an optional argument, the measurement data to an aggregate value ; whereas ∘ if an aggregate value has already been obtained, mapping , by means of said aggregation function (H), the combination of this aggregate value and the measurement data to a new aggregate value ; and • in response to a predetermined condition being met, ∘ computing , using a secret key of the sensor device , a signature of the aggregate value ; and ∘ outputting the signature via a communication interface of the sensor device , and/or ∘ storing the signature in a memory, • wherein the predetermined condition comprises that a previous computation of a previous signature has finished. • in response to measurement data being acquired , determining , by the sensor device , whether an aggregate value has already been generated, and: ∘ if an aggregate value has not yet been obtained, mapping , by means of a predetermined aggregation function (H) that takes measurement data as a mandatory argument and a previously generated aggregate value as an optional argument, the measurement data to an aggregate value ; whereas ∘ if an aggregate value has already been obtained, mapping , by means of said aggregation function (H), the combination of this aggregate value and the measurement data to a new aggregate value ; and ∘ if an aggregate value has not yet been obtained, mapping , by means of a predetermined aggregation function (H) that takes measurement data as a mandatory argument and a previously generated aggregate value as an optional argument, the measurement data to an aggregate value ; whereas ∘ if an aggregate value has already been obtained, mapping , by means of said aggregation function (H), the combination of this aggregate value and the measurement data to a new aggregate value ; and • in response to a predetermined condition being met, ∘ computing , using a secret key of the sensor device , a signature of the aggregate value ; and ∘ outputting the signature via a communication interface of the sensor device , and/or ∘ storing the signature in a memory, ∘ computing , using a secret key of the sensor device , a signature of the aggregate value ; and ∘ outputting the signature via a communication interface of the sensor device , and/or ∘ storing the signature in a memory, • wherein the predetermined condition comprises that a previous computation of a previous signature has finished.
A method for reducing the content of phospholipids in an oil composition, the method comprising a) providing an oil composition containing a quantity of phospholipids, b) contacting said oil composition with a phosphatidylinositol phospholipase C and a PC and PE-specific phospholipase C under conditions sufficient for the enzymes to react with the phospholipids to create diglyceride and phosphate ester; and, c) separating the phosphate ester from the oil composition; wherein the phosphatidylinositol phospholipase C is the mature polypeptide of SEQ ID NO:2, or a variant of the mature polypeptide of SEQ ID NO: 2 having at least 96% sequence identity to the mature polypeptide of SEQ ID NO: 2, and further wherein said variant having at least 96% sequence identity is a polypeptide wherein one or more amino acids residues have been substituted, deleted or added in one or more of the regions defined by amino acids 28-43, amino acid 59, amino acids 82-88, amino acids 130-131, amino acid 266, amino acids 298-301, amino acids 311-314, using the amino acids numbering in SEQ ID NO: 2, wherein any amino acid substitutions in said variant are conservative amino acid substitutions. a) providing an oil composition containing a quantity of phospholipids, b) contacting said oil composition with a phosphatidylinositol phospholipase C and a PC and PE-specific phospholipase C under conditions sufficient for the enzymes to react with the phospholipids to create diglyceride and phosphate ester; and, c) separating the phosphate ester from the oil composition; wherein the phosphatidylinositol phospholipase C is the mature polypeptide of SEQ ID NO:2, or a variant of the mature polypeptide of SEQ ID NO: 2 having at least 96% sequence identity to the mature polypeptide of SEQ ID NO: 2, and further wherein said variant having at least 96% sequence identity is a polypeptide wherein one or more amino acids residues have been substituted, deleted or added in one or more of the regions defined by amino acids 28-43, amino acid 59, amino acids 82-88, amino acids 130-131, amino acid 266, amino acids 298-301, amino acids 311-314, using the amino acids numbering in SEQ ID NO: 2, wherein any amino acid substitutions in said variant are conservative amino acid substitutions. the phosphatidylinositol phospholipase C is the mature polypeptide of SEQ ID NO:2, or a variant of the mature polypeptide of SEQ ID NO: 2 having at least 96% sequence identity to the mature polypeptide of SEQ ID NO: 2, and further wherein said variant having at least 96% sequence identity is a polypeptide wherein one or more amino acids residues have been substituted, deleted or added in one or more of the regions defined by amino acids 28-43, amino acid 59, amino acids 82-88, amino acids 130-131, amino acid 266, amino acids 298-301, amino acids 311-314, using the amino acids numbering in SEQ ID NO: 2, wherein any amino acid substitutions in said variant are conservative amino acid substitutions.
Portable device comprising a front end to which a device for carrying out remote tasks can be attached, such that the portable device comprises a bracket and handling equipment fixed to a mast of the bracket , the front end of the device being one end of a crosspiece of the bracket , the crosspiece being fixed to the mast using a fixing system providing an embedding between the mast the crosspiece , the fixing system being fixed at a distance below the upper end of the mast , characterized in that the crosspiece consists of telescopic tubes or modular, said distance being so that oblique links distribute mechanical forces on the bracket , the mast and the crosspiece being fixed to each other by said oblique links for consolidation placed between the mast and the crosspiece , attached to one end of the links, on the front part of the crosspiece , then on the mast at its upper end.
A method comprising: ejecting a drop of printing fluid from a nozzle of a printhead into a drop detection zone ; determining an indication of detection of the drop within the drop detection zone; providing an indication of a position of the printhead based on the indication of detection of the drop; and repeating the method for at least one other printhead; the method being characterized in determining , based on the indications of the positions of the printheads, an order of the printheads in a direction of printing parallel to a direction of media advance . ejecting a drop of printing fluid from a nozzle of a printhead into a drop detection zone ; determining an indication of detection of the drop within the drop detection zone; providing an indication of a position of the printhead based on the indication of detection of the drop; and repeating the method for at least one other printhead; the method being characterized in determining , based on the indications of the positions of the printheads, an order of the printheads in a direction of printing parallel to a direction of media advance .
A carton for packaging one or more articles (B), the carton comprising plurality of panels including a side panel (16, 20; 220; 320) and a heel panel (14, 22; 222; 322) hingedly connected to the side panel (16, 20; 220; 320) by a fold line (15, 21; 221; 321), wherein the carton further comprises a plurality of bottom-receiving openings (A3, A5; A6; A7) including first and second openings (A3, A5; A6; A7), each being formed in part in the side panel (16, 20; 220; 320) and in part in the heel panel (14, 22; 222; 322), wherein the first opening (A3) has a first maximum width (W1) measured along a notional line parallel to the fold line, the second opening (A5, A6, A7) has a second maximum width (W2) measured along a notional extension of the fold line characterised in that the second maximum width (W2) is greater than the first maximum width (W1) and the first opening (A3) is disposed at a first distance (D1) from an end (E4) of the carton and the second opening (A5, A6, A7) is disposed at a second distance (D2) from the other end of the carton (E2), and wherein the first distance (D1) is considerably less than the second distance (D2).
An ion exchange membrane, comprising a reaction product of a polymer and a cross-linking agent, wherein the polymer comprises a first repeat unit and a second repeat unit, wherein the first repeat unit is the second repeat unit is wherein R + is A - is F - , Cl - , Br - , I - , OH - , HCO 3 - , HSO 4 - , SbF 6 - , BF 4 - , H 2 PO 4 - , H 2 PO 3 - , or H 2 PO 2 - ; X is i and j are independently 0, or an integer from 1 to 6, Y is -O-, -S-, -CH 2 -, or -NH-; R 1 is independently C 1-8 alkyl group; and, R 2 and R 3 are independently hydrogen, or C 1-8 alkyl group; and, the cross-linking agent is a compound having at least two imide groups, and wherein the cross-linking agent has a weight percentage between about 1 wt% and 30 wt%, based on the weight of the polymer.