mhurhangee/patent-ind-claim-en huggingface dataset:
A securement system for a user interface and/or a component of a user interface, the securement system comprising a two-part releasable attachment arrangement, the arrangement comprising: a dermal patch and a user interface patch , the dermal patch having a patient side and an interface side, the patient side of the dermal patch being attachable to the skin of a user, the interface side of the dermal patch being provided with a first part of a two-part releasable attachment arrangement , and the user interface patch having a patient side and an interface side, the patient side of the user interface patch being provided with a complimentary second part of the two-part releasable attachment arrangement , the interface side of the user interface patch being attachable to the user interface and/or the component of the user interface, wherein the first part of the two-part releasable attachment system includes a substrate secured to, or for securing to, the dermal patch, the substrate portion including at least one slit , with areas of the substrate portion separated by the at least one slit. a dermal patch and a user interface patch , the dermal patch having a patient side and an interface side, the patient side of the dermal patch being attachable to the skin of a user, the interface side of the dermal patch being provided with a first part of a two-part releasable attachment arrangement , and the user interface patch having a patient side and an interface side, the patient side of the user interface patch being provided with a complimentary second part of the two-part releasable attachment arrangement , the interface side of the user interface patch being attachable to the user interface and/or the component of the user interface, wherein the first part of the two-part releasable attachment system includes a substrate secured to, or for securing to, the dermal patch, the substrate portion including at least one slit , with areas of the substrate portion separated by the at least one slit.
Drinking behavior monitoring device, comprising a stress level detection sensor which is configured to discriminate between at least a high stress level and a low stress level of a baby during a feeding procedure, stress being indicative of the milk flow rate being too low or too high and wherein the stress level detection sensor is configured to detect one or more physiological parameters, a suction frequency detection sensor configured to detect a suction frequency during a feeding procedure, and an analyzer configured to analyze a drinking behavior of the baby based on the detected stress level and the detected suction frequency, wherein the analyzer is configured to compare the analyzed drinking behavior with a typical drinking behavior and to output a notification based on the analyzed drinking behavior based on whether the flow rate is too low or too high. a stress level detection sensor which is configured to discriminate between at least a high stress level and a low stress level of a baby during a feeding procedure, stress being indicative of the milk flow rate being too low or too high and wherein the stress level detection sensor is configured to detect one or more physiological parameters, a suction frequency detection sensor configured to detect a suction frequency during a feeding procedure, and an analyzer configured to analyze a drinking behavior of the baby based on the detected stress level and the detected suction frequency, wherein the analyzer is configured to compare the analyzed drinking behavior with a typical drinking behavior and to output a notification based on the analyzed drinking behavior based on whether the flow rate is too low or too high.
Metal/plastics composite component, in which the metal component is integrally bonded to a thermoplastic material applied thereon, the metal component comprising, on the surface regions which come into contact with the plastics material, an anti-corrosion coating consisting of a phosphate coating for an integral adhesive bond between the metal component and the plastics material, characterised in that a cathodic dip coating was applied to the phosphate coating, and this was baked either together with the plastics material applied thereon or before application of the plastics material at a temperature of from 160°C to 220°C, advantageously between 160°C and 180°C, the plastics material which was applied together with the dip coating being melted when baking the cathodic dip coating or after application onto the baked cathodic dip coating.
A compound of formula I wherein L is a bond, a triple bond, -C(O)NH- or -NHC(O)-; R 1 is phenyl or a five or six-membered heteroaryl group, optionally substituted by lower alkyl, lower alkyl substituted by halogen or lower alkoxy substituted by halogen; R 2 is fluoro; R 3 is fluoro or chloro; R 4 is hydrogen, lower alkyl, halogen, lower alkyl substituted by hydroxy, S(O) 2 CH 3 , or is a five or six-membered heteroaryl group or a heterocycloalkyl group, which are optionally substituted by lower alkyl, hydroxy or =O; R 5 and R 6 are both methyl and the dotted line is a bond; or R 5 and R 6 are both methyl and the dotted line is nothing; or one of R 5 and R 6 is hydrogen and the other is methyl, and the dotted line is nothing; or a pharmaceutically acceptable salt or acid addition salt, all possible tautomeric forms, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof; and wherein lower alkyl" denotes a saturated straight- or branched-chain group containing from 1 to 7 carbon atoms. L is a bond, a triple bond, -C(O)NH- or -NHC(O)-; R 1 is phenyl or a five or six-membered heteroaryl group, optionally substituted by lower alkyl, lower alkyl substituted by halogen or lower alkoxy substituted by halogen; R 2 is fluoro; R 3 is fluoro or chloro; R 4 is hydrogen, lower alkyl, halogen, lower alkyl substituted by hydroxy, S(O) 2 CH 3 , or is a five or six-membered heteroaryl group or a heterocycloalkyl group, which are optionally substituted by lower alkyl, hydroxy or =O; R 5 and R 6 are both methyl and the dotted line is a bond; or
A refractory metal core (338a-e; 438) for manufacturing a component of a gas turbine engine , the refractory metal core comprising: a trunk (350a-e; 450) configured to attach to a cavity core structure (232; 234; 236); a first refractory metal core body (342a; 342c; 342e) having a first branch (356a-e; 456a) extending from the trunk and configured to form a first portion of a cooling circuit (528; 628; 728a; 728c) in the component; and a second refractory metal core body (344a; 344c; 344e) having a second branch (356a-e; 456b) extending from the trunk and configured to form a second portion of the cooling circuit in the component, wherein the first branch and the second branch are configured to define fluid exits at two different locations on an exterior of the component; characterised in that : the trunk comprises a stack defined by a portion of the first refractory metal core body attached to a portion of the second refractory metal core body. a trunk (350a-e; 450) configured to attach to a cavity core structure (232; 234; 236); a first refractory metal core body (342a; 342c; 342e) having a first branch (356a-e; 456a) extending from the trunk and configured to form a first portion of a cooling circuit (528; 628; 728a; 728c) in the component; and a second refractory metal core body (344a; 344c; 344e) having a second branch (356a-e; 456b) extending from the trunk and configured to form a second portion of the cooling circuit in the component, wherein the first branch and the second branch are configured to define fluid exits at two different locations on an exterior of the component; characterised in that : the trunk comprises a stack defined by a portion of the first refractory metal core body attached to a portion of the second refractory metal core body.
Method of controlling an operation of an elevator system , wherein the method comprises the following steps: checking as a first condition if an elevator shaft door of a first floor has been closed to move an elevator car to a second floor ; checking as a second condition if the elevator car is still within a door zone of the first floor , in which an elevator car door of the elevator car is not yet locked; and if the first condition and the second condition are fulfilled when an elevator call for the first floor is received, moving the elevator car back to an entrance level of the first floor and/or opening the elevator shaft door of the first floor before moving the elevator car to the second floor , characterised that the method comprises a further step: checking as a third condition if no person is inside the elevator car ; wherein the step of moving the elevator car back to the entrance level of the first floor and/or opening the elevator shaft door of the first floor before moving the elevator car to the second floor is only executed if the first condition, the second condition and the third condition are fulfilled when the elevator call for the first floor is received. checking as a first condition if an elevator shaft door of a first floor has been closed to move an elevator car to a second floor ; checking as a second condition if the elevator car is still within a door zone of the first floor , in which an elevator car door of the elevator car is not yet locked; and if the first condition and the second condition are fulfilled when an elevator call for the first floor is received, moving the elevator car back to an entrance level of the first floor and/or opening the elevator shaft door of the first floor before moving the elevator car to the second floor , characterised that the method comprises a further step: checking as a third condition if no person is inside the elevator car ; wherein the step of moving the elevator car back to the entrance level of the first floor and/or opening the elevator shaft door of the first floor before moving the elevator car to the second floor is only executed if the first condition, the second condition and the third condition are fulfilled when the elevator call for the first floor is received. checking as a third condition if no person is inside the elevator car ; wherein the step of moving the elevator car back to the entrance level of the first floor and/or opening the elevator shaft door of the first floor before moving the elevator car to the second floor is only executed if the first condition, the second condition and the third condition are fulfilled when the elevator call for the first floor is received.
An impact target for a sports simulator, the impact target comprising: a plate comprising a front surface and a rear surface opposite the front surface, the rear surface comprising an opening , the plate configured to vibrate in response to an impact of a sports projectile with the impact target; and a vibration sensor fixedly positioned within the opening, the vibration sensor configured to detect the impact of a sports projectile with the impact target, wherein the opening extends through a thickness of the plate from the rear surface to the front surface , and the impact target further comprises: a cover sheet overlying the front surface of the plate ; and an air gap between the cover sheet and the front surface . a plate comprising a front surface and a rear surface opposite the front surface, the rear surface comprising an opening , the plate configured to vibrate in response to an impact of a sports projectile with the impact target; and a vibration sensor fixedly positioned within the opening, the vibration sensor configured to detect the impact of a sports projectile with the impact target, wherein the opening extends through a thickness of the plate from the rear surface to the front surface , and the impact target further comprises: a cover sheet overlying the front surface of the plate ; and an air gap between the cover sheet and the front surface . a cover sheet overlying the front surface of the plate ; and an air gap between the cover sheet and the front surface .
An airfoil (60;160) for a gas turbine engine , the airfoil (60;160) comprising an airfoil section defining an airfoil profile (AP), the airfoil section including: a first airfoil piece (72; 172) defining a portion of the airfoil profile (AP), the first airfoil piece (72; 172) having a first slot (80a; 180a); a second airfoil piece (74;174) adjacent the first airfoil piece (72;172), the second airfoil piece (74;174) defining a different portion of the airfoil profile (AP), and the second airfoil piece (74;174) having a second slot (80b;180b), the first slot (80a;180a) and the second slot (80b;180b) together forming a first seal slot (84; 184a); and a first seal (86; 186a) disposed in the first seal slot (84; 184a), wherein the first seal (86; 186a) is a feather seal, characterised in that : the feather seal includes cooling through-holes . a first airfoil piece (72; 172) defining a portion of the airfoil profile (AP), the first airfoil piece (72; 172) having a first slot (80a; 180a); a second airfoil piece (74;174) adjacent the first airfoil piece (72;172), the second airfoil piece (74;174) defining a different portion of the airfoil profile (AP), and the second airfoil piece (74;174) having a second slot (80b;180b), the first slot (80a;180a) and the second slot (80b;180b) together forming a first seal slot (84; 184a); and a first seal (86; 186a) disposed in the first seal slot (84; 184a), wherein the first seal (86; 186a) is a feather seal, characterised in that : the feather seal includes cooling through-holes .
A fuel tank structure of a straddle vehicle comprising: a fuel tank which accumulates fuel supplied from a fuel filler port ; a fuel tray which is provided above the fuel tank so as to surround the fuel filler port ; and a gas-liquid separator which is connected to the fuel tank and separates the fuel into gas and liquid, wherein the gas-liquid separator is spaced apart from the fuel tank , wherein the gas-liquid separator is provided on the fuel tray , a bottom surface of the gas-liquid separator is inclined at an angle different from that of a tank upper surface of the fuel tank , the fuel tank is covered with a cover member including a fuel lid which is openable and closable above the fuel tray , characterized in that , the gas-liquid separator is arranged in a space (SP) between the fuel tank and the cover member . a fuel tank which accumulates fuel supplied from a fuel filler port ; a fuel tray which is provided above the fuel tank so as to surround the fuel filler port ; and a gas-liquid separator which is connected to the fuel tank and separates the fuel into gas and liquid, wherein the gas-liquid separator is spaced apart from the fuel tank , wherein the gas-liquid separator is provided on the fuel tray , a bottom surface of the gas-liquid separator is inclined at an angle different from that of a tank upper surface of the fuel tank , the fuel tank is covered with a cover member including a fuel lid which is openable and closable above the fuel tray , characterized in that , the gas-liquid separator is arranged in a space (SP) between the fuel tank and the cover member .
A vehicle intended to mainly move in a longitudinal direction , the vehicle comprising: • a chassis ; • two independent swing arms , each of the swing arms being rotationally movable relative to the chassis about a transverse axis perpendicular to the longitudinal direction , each of the swing arms supporting a wheel of the vehicle , • two independent rockers , each being rotationally movable relative to the chassis about an axis , the axes of rotation of the two rockers being distinct from each other and parallel to each other, • a first link element (36; 102) disposed between the two rockers , • two second link elements each linking one of the rockers to one of the swing arms , characterised in that each rocker comprises: • two first parallel plates (70, 72; 74, 76) extending between the rotational link relative to the chassis and a link with the first link element • two second parallel plates (78, 80; 82; 84) fixed to the first plates (70, 72; 74, 76) and allowing to space apart the link (46; 48) to the first link element and the link to the second link element . • a chassis ; • two independent swing arms , each of the swing arms being rotationally movable relative to the chassis about a transverse axis perpendicular to the longitudinal direction , each of the swing arms supporting a wheel of the vehicle , • two independent rockers , each being rotationally movable relative to the chassis about an axis , the axes of rotation of the two rockers being distinct from each other and parallel to each other, • a first link element (36; 102) disposed between the two rockers , • two second link elements each linking one of the rockers to one of the swing arms , • two first parallel plates (70, 72; 74, 76) extending between the rotational link relative to the chassis and a link with the first link element • two second parallel plates (78, 80; 82; 84) fixed to the first plates (70, 72; 74, 76) and allowing to space apart the link (46; 48) to the first link element and the link to the second link element .
A device for disinfecting a liquid, which comprises: a reaction chamber that is rotationally symmetrical about its longitudinal axis and has a head region (KB) and a bottom region (BB) and an intermediate region (ZB) between the head region (KB) and the bottom region (BB); a first inlet connected to the reaction chamber in the head region (KB) for introducing a first component of the liquid into the reaction chamber ; a second inlet connected in the head region (KB) to the reaction chamber for introducing a second component of the liquid, different from the first component, into the reaction chamber ; and a drain connected to the reaction chamber in the bottom region (BB) for discharging the liquid from the reaction chamber ; wherein the first inlet and the second inlet being arranged and the reaction chamber being designed such that, after the liquid has been introduced into the reaction chamber , a three-dimensional turbulent flow is formed in the liquid within the reaction chamber , in particular over at least 50% of the volume of the reaction chamber ; and characterized in that the radius of the reaction chamber changes in the intermediate region (ZB) in accordance with a clothoid. a reaction chamber that is rotationally symmetrical about its longitudinal axis and has a head region (KB) and a bottom region (BB) and an intermediate region (ZB) between the head region (KB) and the bottom region (BB); a first inlet connected to the reaction chamber in the head region (KB) for introducing a first component of the liquid into the reaction chamber ; a second inlet connected in the head region (KB) to the reaction chamber for introducing a second component of the liquid, different from the first component, into the reaction chamber ; and a drain connected to the reaction chamber in the bottom region (BB) for discharging the liquid from the reaction chamber ; wherein the first inlet and the second inlet being arranged and the reaction chamber being designed such that, after the liquid has been introduced into the reaction chamber , a three-dimensional turbulent flow is formed in the liquid within the reaction chamber , in particular over at least 50% of the volume of the reaction chamber ; and characterized in that the radius of the reaction chamber changes in the intermediate region (ZB) in accordance with a clothoid.
A lightweight shield for aircraft protection against threat of high energy impacts, which comprises, a structural layer having a first side (2.1) and a second side (2.2), wherein the first side (2.1) is intended for receiving the impact, a ballistic material layer for absorbing high energy impacts, having a first side (3.1) and a second side (3.2), wherein the first side (3.1) of the ballistic material layer is faced to the second side (2.2) of structural layer and joined to said structural layer by means of a progressively detachable interface and, the second side (3.2) of the ballistic material layer is a free surface, wherein the structural layer is a carbon fiber laminate comprising a resin matrix; characterized in that the progressively detachable interface is a patterned layer comprising a plurality of discrete detachable joint points; said patterned layer being selected from the group consisting of a peel ply layer, a non-stick release film layer, and combinations thereof; and in that the ballistic material layer comprises a small amount of resin diffused from the structural layer during a curing or resin injection or infusion process of this structural layer , through the plurality of discrete detachable joint points of the interface , said plurality of discrete detachable joint points and the resin matrix being thermoplastic resin. a structural layer having a first side (2.1) and a second side (2.2), wherein the first side (2.1) is intended for receiving the impact, a ballistic material layer for absorbing high energy impacts, having a first side (3.1) and a second side (3.2), wherein the first side (3.1) of the ballistic material layer is faced to the second side (2.2) of structural layer and joined to said structural layer by means of a progressively detachable interface and, the second side (3.2) of the ballistic material layer is a free surface, wherein the structural layer is a carbon fiber laminate comprising a resin matrix; characterized in that the progressively detachable interface is a patterned layer comprising a plurality of discrete detachable joint points; said patterned layer being selected from the group consisting of a peel ply layer, a non-stick release film layer, and combinations thereof; and in that the ballistic material layer comprises a small amount of resin diffused from the structural layer during a curing or resin injection or infusion process of this structural layer , through the plurality of discrete detachable joint points of the interface , said plurality of discrete detachable joint points and the resin matrix being thermoplastic resin.