mhurhangee/patent-ind-claim-en huggingface dataset:
A glass article, comprising: a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face forming four edges around the front and back faces, wherein the glass sheet comprises: greater than 80 mol % SiO 2 , between 0 mol% to 0.5 mol% Al 2 O 3 , between 0 mol% to 0.5 mol% B 2 O 3 , between 0 mol% to 0.5 mol% Na 2 O, between 8 mol% to 11 mol% K 2 O, between 0.01 mol% to 4 mol% ZnO, between 6 mol% to 10 mol% MgO, between 0 mol% to 0.5 mol% CaO, between 0 mol% to 0.5 mol% SrO, between 0 mol% to 0.5 mol% BaO, and between 0.01 mol% to 0.11 mol% SnO 2 . a glass sheet with a front face having a width and a height, a back face opposite the front face, and a thickness between the front face and back face forming four edges around the front and back faces, wherein the glass sheet comprises: greater than 80 mol % SiO 2 , between 0 mol% to 0.5 mol% Al 2 O 3 , between 0 mol% to 0.5 mol% B 2 O 3 , between 0 mol% to 0.5 mol% Na 2 O, between 8 mol% to 11 mol% K 2 O, between 0.01 mol% to 4 mol% ZnO, between 6 mol% to 10 mol% MgO, between 0 mol% to 0.5 mol% CaO, between 0 mol% to 0.5 mol% SrO, between 0 mol% to 0.5 mol% BaO, and between 0.01 mol% to 0.11 mol% SnO 2 . greater than 80 mol % SiO 2 , between 0 mol% to 0.5 mol% Al 2 O 3 , between 0 mol% to 0.5 mol% B 2 O 3 , between 0 mol% to 0.5 mol% Na 2 O, between 8 mol% to 11 mol% K 2 O, between 0.01 mol% to 4 mol% ZnO, between 6 mol% to 10 mol% MgO, between 0 mol% to 0.5 mol% CaO, between 0 mol% to 0.5 mol% SrO, between 0 mol% to 0.5 mol% BaO, and between 0.01 mol% to 0.11 mol% SnO 2 .
A tire comprising a tread configured to come into contact with a road surface, wherein the tread comprises a cap layer , an intermediate layer formed such that a loss tangent (LTm) of the intermediate layer at 30°C is less than a loss tangent (LTc) of the cap layer at 30°C, and a base layer formed such that a loss tangent (LTb) of the base layer at 30°C is less than the loss tangent (LTm) of the intermediate layer at 30°C, wherein the intermediate layer is disposed outwardly of the base layer in a radial direction, and the cap layer is disposed outwardly of the intermediate layer in the radial direction, wherein an outer end (PC) of the cap layer is disposed inwardly of an outer end (PM) of the intermediate layer in the axial direction, and wherein a difference between an axial width (WC) of the cap layer and an axial width (WB) of the base layer is not less than -10 mm and not greater than 10 mm, characterized in that the outer end (PM) of the intermediate layer is disposed outwardly of an outer end (PB) of the base layer in an axial direction, and a difference between an axial width (WM) of the intermediate layer and the axial width (WC) of the cap layer is not less than 10 mm and not greater than 30 mm. a tread configured to come into contact with a road surface, wherein the tread comprises a cap layer , an intermediate layer formed such that a loss tangent (LTm) of the intermediate layer at 30°C is less than a loss tangent (LTc) of the cap layer at 30°C, and a base layer formed such that a loss tangent (LTb) of the base layer at 30°C is less than the loss tangent (LTm) of the intermediate layer at 30°C, wherein the intermediate layer is disposed outwardly of the base layer in a radial direction, and the cap layer is disposed outwardly of the intermediate layer in the radial direction, wherein an outer end (PC) of the cap layer is disposed inwardly of an outer end (PM) of the intermediate layer in the axial direction, and wherein a difference between an axial width (WC) of the cap layer and an axial width (WB) of the base layer is not less than -10 mm and not greater than 10 mm, characterized in that the outer end (PM) of the intermediate layer is disposed outwardly of an outer end (PB) of the base layer in an axial direction, and a difference between an axial width (WM) of the intermediate layer and the axial width (WC) of the cap layer is not less than 10 mm and not greater than 30 mm.
A polarization controller configured to control polarization of an optical signal, the polarization controller comprising a first polarization rotator and a second polarization rotator controllable by control settings, wherein the polarization controller comprises: a monitor unit configured to generate a monitoring value indicating a performance of the polarization controller, wherein the polarization controller is configured to determine from the monitoring value if the polarization controller is operating in a selected one of a plurality of optimal performance states , and if not, the polarization controller is further configured to select different control settings to select an alternate one of the plurality of optimal performance states for the polarization controller; wherein the plurality of optimal performance states are separated by non-optimal performance states for the polarization controller. a monitor unit configured to generate a monitoring value indicating a performance of the polarization controller, wherein the polarization controller is configured to determine from the monitoring value if the polarization controller is operating in a selected one of a plurality of optimal performance states , and if not, the polarization controller is further configured to select different control settings to select an alternate one of the plurality of optimal performance states for the polarization controller; wherein the plurality of optimal performance states are separated by non-optimal performance states for the polarization controller.
System for checking and controlling access for a user to a refuse container , comprising a refuse container having an electronic control unit , which comprises a first communication interface for sending and receiving data and a server that is arranged at a distance from the refuse container and comprises a second communication interface , an authentication manager and a database , it being possible to initiate a transfer of identification data between the first communication interface and a third communication interface of a communication apparatus , which apparatus can be assigned to a user, in order to identify a user before using the refuse container , and it being possible to initiate a transfer of identification data between the third communication interface and the second communication interface , wherein the first communication interface does not comprise any devices for directly transferring data to the second communication interface , the communication apparatus that can be assigned to the user comprising an interface device, via which indirect data transfer can be initiated between the first communication interface and the second communication interface , the authentication manager assigning user data from the database to the identification data and giving or denying said user access to said refuse container on the basis of this assignment, characterised in that the communication takes place via a first communication channel and a second communication channel , which is different therefrom, in a time-displaced manner, wherein an offline state is detectable by the communication apparatus , in which offline state a communication between the third communication interface and the second communication interface is not possible, wherein access to the refuse container can be granted or denied by the communication apparatus by itself in the offline state on the basis of the last result of the authentication by the server.
A method for cleaning one or more cooling passages associated with a combustion chamber of a gas turbine engine , the gas turbine engine having a compressor section upstream from the combustion chamber , the method comprising: receiving a pressurized fluid from an external pressurized fluid source remote from the gas turbine engine; coupling an outlet conduit to the external pressurized fluid source and an inlet of a chamber ; directing the pressurized fluid through the inlet of the chamber such that a portion of a plurality of particles within the chamber is entrained within the pressurized fluid; coupling an inlet conduit to an outlet of the chamber and an end wall of a diffuser and deswirl system ; and injecting the pressurized fluid with the entrained portion of the plurality of particles downstream from the compressor section through the end wall of a diffuser and deswirl system of the gas turbine engine to clean the one or more cooling passages associated with the combustion chamber. receiving a pressurized fluid from an external pressurized fluid source remote from the gas turbine engine; coupling an outlet conduit to the external pressurized fluid source and an inlet of a chamber ; directing the pressurized fluid through the inlet of the chamber such that a portion of a plurality of particles within the chamber is entrained within the pressurized fluid; coupling an inlet conduit to an outlet of the chamber and an end wall of a diffuser and deswirl system ; and injecting the pressurized fluid with the entrained portion of the plurality of particles downstream from the compressor section through the end wall of a diffuser and deswirl system of the gas turbine engine to clean the one or more cooling passages associated with the combustion chamber.
A deployable reflector for an antenna, the deployable reflector comprising: a deployable membrane configured to adopt a pre-formed shape in a deployed configuration; and an electrically conductive mesh disposed on a surface of the membrane such that in the deployed configuration, the conductive mesh adopts the shape of the membrane and forms a reflective surface of the reflector, characterised in that the electrically conductive mesh is configured to permit relative lateral movement between the electrically conductive mesh and the membrane during deployment of the reflector, wherein said relative lateral movement comprises movement across a surface of the membrane. a deployable membrane configured to adopt a pre-formed shape in a deployed configuration; and an electrically conductive mesh disposed on a surface of the membrane such that in the deployed configuration, the conductive mesh adopts the shape of the membrane and forms a reflective surface of the reflector, characterised in that the electrically conductive mesh is configured to permit relative lateral movement between the electrically conductive mesh and the membrane during deployment of the reflector, wherein said relative lateral movement comprises movement across a surface of the membrane.
A device adapted to identify and monitor a reagent kit adapted for insertion into an analytical system, wherein the device is configured for being positioned in said reagent kit and comprises: - means for measuring the temperature of the reagent kit; - means for measuring the light level to which the reagent kit is subjected; - means for measuring the electric conductivity level of one or more reagents of the reagent kit, said means for measuring the electric conductivity level being in contact with said one or more reagents; - means for measuring the triaxial acceleration to which the reagent kit is subjected; - a multiparameter data-logger for logging the data obtained from said temperature, light, conductivity and acceleration measuring means; - means for storing and transmitting data identifying the reagent kit and said data obtained from said temperature, light, conductivity and acceleration measuring means, in order to detect operational or non-operational conditions of said kit. - means for measuring the temperature of the reagent kit; - means for measuring the light level to which the reagent kit is subjected; - means for measuring the electric conductivity level of one or more reagents of the reagent kit, said means for measuring the electric conductivity level being in contact with said one or more reagents; - means for measuring the triaxial acceleration to which the reagent kit is subjected; - a multiparameter data-logger for logging the data obtained from said temperature, light, conductivity and acceleration measuring means; - means for storing and transmitting data identifying the reagent kit and said data obtained from said temperature, light, conductivity and acceleration measuring means, in order to detect operational or non-operational conditions of said kit.
A lead-acid battery comprising: - a housing having a base , two side walls , and two end walls , wherein the two side walls comprise a first side wall including a convex portion , an inward slope portion and an internal surface having a curved portion reflective of the convex portion of the first side wall , and a second side wall including a convex portion , an inward slope portion and an internal surface having a curved portion reflective of the convex portion of the second side wall ; - a cell wall spanning between the first and second side walls defining two cells ; - a battery element provided within a cell , the battery element having a bottom and a battery element side edge ; - an element bottom gap , the element bottom gap defined in a first and second dimension by the cell width and length, and a third dimension by the distance between the base and bottom of the battery element , wherein the element bottom gap extends along an entire bottom surface of the cell ; - a first element side gap , the first element side gap being defined by the battery element side edge and the curved portion of the internal surface of the first side wall of the housing ; and - a second element side gap , the second element side gap being defined by the battery element side edge and the curved portion of the internal surface of the second side wall of the housing . - a housing having a base , two side walls , and two end walls , wherein the two side walls comprise a first side wall including a convex portion , an inward slope portion and an internal surface having a curved portion reflective of the convex portion of the first side wall , and a second side wall including a convex portion , an inward slope portion and an internal surface having a curved portion reflective of the convex portion of the second side wall ; an internal surface having a curved portion reflective of the convex portion of the first side wall , and a second side wall including a convex portion , an inward slope portion and an internal surface having a curved portion reflective of the convex portion of the second side wall ; - a cell wall spanning between the first and second side walls defining two cells ; - a battery element provided within a cell , the battery element having a bottom and a battery element side edge ; - an element bottom gap , the element bottom gap defined in a first and second dimension by the cell width and length, and a third dimension by the distance between the base and bottom of the battery element , wherein the element bottom gap extends along an entire bottom surface of the cell ; - a first element side gap , the first element side gap being defined by the battery element side edge and the curved portion of the internal surface of the first side wall of the housing ; and - a second element side gap , the second element side gap being defined by the battery element side edge and the curved portion of the internal surface of the second side wall of the housing .
Station (1; 1') for measuring airborne molecular contamination comprising at least one gas analyser and a conditioning pump further comprising a sequencing unit comprising a sequencing program defining an order of the measurements to be performed for at least two sampling lines (L1-L16), the sequencing unit being configured to control the connecting of a sampling line (L1-L16) to be measured for which the measurement is programmed to follow a sampling line (L1-L16) currently being measured, with the conditioning pump during the controlling of the connecting of the sampling line (L1-L16) currently being measured with the at least one gas analyser , the measurement station being characterized in that it comprises: - a sampling electrovalve that can be controlled by the sequencing unit on each sampling line (L1-L16), - a first and a second conditioning electrovalve that can be controlled by the sequencing unit , arranged as a branch of the input of the conditioning pump , - a first and a second measurement electrovalve that can be controlled by the sequencing unit , arranged as a branch of the input of the at least one gas analyser , the first conditioning electrovalve and the first measurement electrovalve being connected to sampling electrovalves of a first series (S1) of sampling lines (L1, L3, L5, L7, L9, L11, L13, L15), the second conditioning electrovalve and the second measurement electrovalve being connected to sampling electrovalves of a second series (S2) of sampling lines (L2, L4, L6, L8, L10, L12, L14, L16). - a sampling electrovalve that can be controlled by the sequencing unit on each sampling line (L1-L16), - a first and a second conditioning electrovalve that can be controlled by the sequencing unit , arranged as a branch of the input of the conditioning pump , - a first and a second measurement electrovalve that can be controlled by the sequencing unit , arranged as a branch of the input of the at least one gas analyser , the first conditioning electrovalve and the first measurement electrovalve being connected to sampling electrovalves of a first series (S1) of sampling lines (L1, L3, L5, L7, L9, L11, L13, L15), the second conditioning electrovalve and the second measurement electrovalve being connected to sampling electrovalves of a second series (S2) of sampling lines (L2, L4, L6, L8, L10, L12, L14, L16).
A laminate structure for forming a package, the laminate structure comprising: a first film layer defining a first surface configured to be disposed proximate a product stored within a package, the first film layer further defining a second surface opposite the first surface, wherein the first film layer includes an uncut laser-distorted region ; a second film layer defining a first surface laminated to the second surface of the first film layer and a second surface opposite the first surface of the second film layer, wherein the second film layer includes an inner laser score line extending between the first and second surfaces of the second film layer; and a third film layer defining a first surface laminated to the second surface of the second film layer and a second surface opposite the first surface of the third film layer, wherein the third film layer includes an outer score line extending between the first and second surfaces of the third film layer, wherein the inner laser score line is in line with the laser-distorted region, and the outer score line is offset from the inner laser score line and the laser-distorted region, such that peeling back the third film layer at the outer score line causes the first film layer to break along the laser-distorted region to form a first film layer cut line continuous with the inner laser score line to allow the first film layer and the second film layer to be moved together with the third film layer. a first film layer defining a first surface configured to be disposed proximate a product stored within a package, the first film layer further defining a second surface opposite the first surface, wherein the first film layer includes an uncut laser-distorted region ; a second film layer defining a first surface laminated to the second surface of the first film layer and a second surface opposite the first surface of the second film layer, wherein the second film layer includes an inner laser score line extending between the first and second surfaces of the second film layer; and a third film layer defining a first surface laminated to the second surface of the second film layer and a second surface opposite the first surface of the third film layer, wherein the third film layer includes an outer score line extending between the first and second surfaces of the third film layer, wherein the inner laser score line is in line with the laser-distorted region, and the outer score line is offset from the inner laser score line and the laser-distorted region, such that peeling back the third film layer at the outer score line causes the first film layer to break along the laser-distorted region to form a first film layer cut line continuous with the inner laser score line to allow the first film layer and the second film layer to be moved together with the third film layer.
Surprise mechanism for a striking timepiece comprising: - a surprise-piece mounted coaxially to a first snail and to a second snail , - an hour rack connected to a striking control and arranged to pivot from a rest position when said control is actuated, - a surprise jumper arranged to press against the surprise-piece under the effect of a spring to cause the surprise-piece to pivot relative to the first snail , - a surprise-piece isolating device arranged to keep the surprise jumper away from the surprise-piece when the hour rack is in the rest position, the surprise-piece isolating device comprising a locking member arranged to cooperate with the hour rack to keep the surprise jumper separate when the hour rack is in the rest position thereof, characterised in that said surprise-piece isolating device is made in one piece with said surprise jumper. - a surprise-piece mounted coaxially to a first snail and to a second snail , - an hour rack connected to a striking control and arranged to pivot from a rest position when said control is actuated, - a surprise jumper arranged to press against the surprise-piece under the effect of a spring to cause the surprise-piece to pivot relative to the first snail , - a surprise-piece isolating device arranged to keep the surprise jumper away from the surprise-piece when the hour rack is in the rest position, the surprise-piece isolating device comprising a locking member arranged to cooperate with the hour rack to keep the surprise jumper separate when the hour rack is in the rest position thereof, characterised in that said surprise-piece isolating device is made in one piece with said surprise jumper.
A method for disposing of a device comprising an alkali metal , comprising: placing into a container a device comprising a layer portion comprising an alkali metal , an oxide of the alkali metal , a hydroxide of the alkali metal , or any combination thereof; contacting the layer portion on the device to a reactant for the alkali metal or a solubilizer of the alkali metal ; allowing the alkali metal to react with the reactant or to dissolve in the solubilizer to render the alkali metal substantially non-reactive; and disposing of the device , the container , or both. placing into a container a device comprising a layer portion comprising an alkali metal , an oxide of the alkali metal , a hydroxide of the alkali metal , or any combination thereof; contacting the layer portion on the device to a reactant for the alkali metal or a solubilizer of the alkali metal ; allowing the alkali metal to react with the reactant or to dissolve in the solubilizer to render the alkali metal substantially non-reactive; and disposing of the device , the container , or both.