mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for separating a first liner from a lens wafer , comprising: a first lens wafer holder , at least one nozzle including a first open end configured to face an edge of the lens wafer and to eject a gas, the at least one nozzle disposed proximal to the first lens wafer holder configured to hold the lens wafer having the first liner attached to a first surface of the lens wafer ; and a first peeling device including a second lens wafer holder configured to hold the lens wafer , a first auxiliary nozzle configured to face the lens wafer and including a first opening configured to eject a gas, and a first at least one suction cup configured to contact the first liner on the first surface of the lens wafer , characterized in that said at least one nozzle is an air nozzle, in that said first auxiliary nozzle is a first auxiliary air nozzle, and in that said first at least one suction cup is configured to form a vacuum seal with the first liner, each suction cup of the first at least one suction cup being retractable in a direction away from the lens wafer . at least one nozzle including a first open end configured to face an edge of the lens wafer and to eject a gas, the at least one nozzle disposed proximal to the first lens wafer holder configured to hold the lens wafer having the first liner attached to a first surface of the lens wafer ; and a first peeling device including a second lens wafer holder configured to hold the lens wafer , a first auxiliary nozzle configured to face the lens wafer and including a first opening configured to eject a gas, and a first at least one suction cup configured to contact the first liner on the first surface of the lens wafer , characterized in that said at least one nozzle is an air nozzle, in that said first auxiliary nozzle is a first auxiliary air nozzle, and in that said first at least one suction cup is configured to form a vacuum seal with the first liner, each suction cup of the first at least one suction cup being retractable in a direction away from the lens wafer .
Deformable reservoir for storing solid hydrogen, containing at least one compound that can absorb or release hydrogen, the reservoir being characterised in that it includes at least: - two rigid bars each including a polymer liner including at least a first orifice and defining at least one compartment for storing said compound and a reinforcing structure inside which said liner is accommodated, said reinforcing structure having globally the shape of a hollow cylinder closed at each of the longitudinal ends thereof respectively by a closing flange , and including at least one orifice , - a connection attached to the reinforcing structure of at least one of the bars by being inserted simultaneously into the first orifice of the liner and the orifice of the reinforcing structure , so as to be sealed to the liner and connect the inside of the storage compartment with the outside of said storage reservoir , - a flexible union member joining two adjacent bars so to render the entire storage reservoir deformable in spite of the rigidity of each bar . - two rigid bars each including a polymer liner including at least a first orifice and defining at least one compartment for storing said compound and a reinforcing structure inside which said liner is accommodated, said reinforcing structure having globally the shape of a hollow cylinder closed at each of the longitudinal ends thereof respectively by a closing flange , and including at least one orifice , - a connection attached to the reinforcing structure of at least one of the bars by being inserted simultaneously into the first orifice of the liner and the orifice of the reinforcing structure , so as to be sealed to the liner and connect the inside of the storage compartment with the outside of said storage reservoir , - a flexible union member joining two adjacent bars so to render the entire storage reservoir deformable in spite of the rigidity of each bar .
A method, for use in a wireless device, for controlling discontinuous reception, DRX, during idle mode, the method comprising: - selecting (S31) a default DRX cycle pattern for controlling operative instants during a DRX cycle, wherein an operative instant is a beam reception window periodically recurring during a DRX cycle; - receiving (S32), from an access node, a first set of beams in the operative instants of the default DRX cycle pattern; - determining (S33) reception quality metrics for said first set of beams; - determining (S34), based on the reception quality metrics, a customized DRX cycle pattern for controlling operative instants during a subsequent DRX cycle; and - applying (S35) the customized DRX cycle pattern in the subsequent DRX cycle to receive a second set of beams. - selecting (S31) a default DRX cycle pattern for controlling operative instants during a DRX cycle, wherein an operative instant is a beam reception window periodically recurring during a DRX cycle; - receiving (S32), from an access node, a first set of beams in the operative instants of the default DRX cycle pattern; - determining (S33) reception quality metrics for said first set of beams; - determining (S34), based on the reception quality metrics, a customized DRX cycle pattern for controlling operative instants during a subsequent DRX cycle; and - applying (S35) the customized DRX cycle pattern in the subsequent DRX cycle to receive a second set of beams.
A method for retrieving a bearer context, wherein the method comprises: receiving , by a serving gateway for user plane, SGW-U, a data packet, and matching context information of a corresponding bearer according to a tunnel endpoint identifier, TEID, carried in the data packet; sending a trigger message to a serving gateway for control plane, SGW-C, if the SGW-U determines, through matching, that the SGW-U does not comprise the context information of the bearer, wherein the trigger message carries the TEID, and the trigger message is used by the SGW-C to obtain the context information of the bearer according to the TEID; receiving a reestablish bearer context message from the SGW-C, wherein the reestablish bearer context message carries the context information of the bearer; and sending the data packet according to the context information of the bearer. receiving , by a serving gateway for user plane, SGW-U, a data packet, and matching context information of a corresponding bearer according to a tunnel endpoint identifier, TEID, carried in the data packet; sending a trigger message to a serving gateway for control plane, SGW-C, if the SGW-U determines, through matching, that the SGW-U does not comprise the context information of the bearer, wherein the trigger message carries the TEID, and the trigger message is used by the SGW-C to obtain the context information of the bearer according to the TEID; receiving a reestablish bearer context message from the SGW-C, wherein the reestablish bearer context message carries the context information of the bearer; and sending the data packet according to the context information of the bearer.
An in vitro method for determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or platelet count in a blood sample comprising the step of a) providing a blood sampler containing heparin and at least one anti-platelet agent selected from prostaglandin analogs, wherein the blood sampler does not contain MgSO 4 , EDTA or citrate; b) combining blood of a volume of 20 μL to 10 mL with heparin and the at least one anti-platelet agent in the blood sampler; c) mixing the blood sample to prepare a blood sample suitable for blood gas parameter analysis, basic metabolic panel parameter analysis and platelet count; and d) determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or number of platelets in the blood sample. a) providing a blood sampler containing heparin and at least one anti-platelet agent selected from prostaglandin analogs, wherein the blood sampler does not contain MgSO 4 , EDTA or citrate; b) combining blood of a volume of 20 μL to 10 mL with heparin and the at least one anti-platelet agent in the blood sampler; c) mixing the blood sample to prepare a blood sample suitable for blood gas parameter analysis, basic metabolic panel parameter analysis and platelet count; and d) determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or number of platelets in the blood sample.
Method for manufacturing floor panels having a decorative surface, wherein said floor panels at least comprise a substrate and a top layer , wherein said top layer comprises a paper layer having a printed pattern, and wherein said method at least comprises the step of providing said paper layer with an inkjet receiver coating by transporting said paper layer relative to a coater in a coating direction (D2), and the step of providing said coated paper layer with at least a portion of said printed pattern by means of a digital inkjet printer , characterized in that said printed pattern comprises a wood motif having wood nerves extending generally in a nerve direction (D4) substantially corresponding to said coating direction (D2) and that the provision of said printed pattern involves a relative motion of said inkjet printer and said paper layer during the printing operation (S3) in a printing direction (D3) substantially corresponding or substantially opposite to said coating direction (D2), wherein said digital inkjet printer comprises print heads mounted on a shuttle, wherein said shuttle travels in said printing direction (D3), the width of the shuttle being at least 8 centimeter.
A method for encoding a sequence of frames of a data signal, the method comprising: receiving a first sequence of frames encoded using a first encoding system ; encoding a second sequence of frames associated with the sequence of frames using a second encoding system , wherein the second sequence of frames is an up-scaled version of the first sequence of frames ; wherein the first encoding system is adapted to generate a first encoded data stream according to a first bit rate; wherein the second encoding system is adapted to generate a second encoded data stream according to a second bit rate; characterized in that the method further comprises increasing the second bit rate upon receiving, from the first encoding system , information about the size of the first encoded data stream and the size of filler values that the first encoding system has added or is planning to add into the first encoded data stream , and using bits produced by the increased second bit rate in place of all or part of the filler values. receiving a first sequence of frames encoded using a first encoding system ; encoding a second sequence of frames associated with the sequence of frames using a second encoding system , wherein the second sequence of frames is an up-scaled version of the first sequence of frames ; wherein the first encoding system is adapted to generate a first encoded data stream according to a first bit rate; wherein the second encoding system is adapted to generate a second encoded data stream according to a second bit rate; characterized in that the method further comprises increasing the second bit rate upon receiving, from the first encoding system , information about the size of the first encoded data stream and the size of filler values that the first encoding system has added or is planning to add into the first encoded data stream , and using bits produced by the increased second bit rate in place of all or part of the filler values.
Method for operating a surface treatment installation , in which overspray arising in a coating booth is taken up by an air stream and carried to one or more disposable filter modules in which overspray is deposited, wherein, once a limit loading with overspray is reached, a disposable filter module is exchanged for an empty disposable filter module, characterised in that the one or more disposable filter modules is/are selected from a set of different disposable filter modules (64.X) depending on the nature and characteristics of the overspray, wherein a set of different disposable filter modules (64.X) is used which a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets ; c) the module housings of the various filter modules (64.X) have same-connection module outlets ; d) at least the filter units of two different filter modules (64.X) are formed differently. characterised in that the one or more disposable filter modules is/are selected from a set of different disposable filter modules (64.X) depending on the nature and characteristics of the overspray, wherein a set of different disposable filter modules (64.X) is used which a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets ; c) the module housings of the various filter modules (64.X) have same-connection module outlets ; d) at least the filter units of two different filter modules (64.X) are formed differently. a) comprises various filter modules (64.X), which are formed as exchangeable disposable units with a module housing and a filter unit and through which booth air laden with overspray can be conducted; and in which b) the module housings of the various filter modules (64.X) have same-connection module inlets ; c) the module housings of the various filter modules (64.X) have same-connection module outlets ; d) at least the filter units of two different filter modules (64.X) are formed differently.
A human knee prosthetic implant comprising: a tibia component forming first and second medial tibia concave surfaces and a lateral tibia concave surface , a femur component forming first and second medial femur convex surfaces and a lateral femur convex surface , characterized by a projection extending from the tibia component and being disposed between the first medial tibia concave surface and the lateral tibia concave surface , the projection being formed to comprise a concave projection surface thereon; a central shaft being disposed between the lateral femur convex surface and the first medial femur convex surface ; the tibia and femur surfaces formed to provide contact interaction including contact between the concave projection surface and the central shaft . a tibia component forming first and second medial tibia concave surfaces and a lateral tibia concave surface , a femur component forming first and second medial femur convex surfaces and a lateral femur convex surface , characterized by a projection extending from the tibia component and being disposed between the first medial tibia concave surface and the lateral tibia concave surface , the projection being formed to comprise a concave projection surface thereon; a central shaft being disposed between the lateral femur convex surface and the first medial femur convex surface ; the tibia and femur surfaces formed to provide contact interaction including contact between the concave projection surface and the central shaft .
An electronic device comprising: a front plate facing a first direction and including a display ; a rear plate facing a second direction opposite to the first direction; and a support member including a first camera facing the first direction and a second camera facing the second direction, and disposed between the front plate and the rear plate , wherein, when the front plate slides in a third direction with respect to the support member in a first state in which the first camera of the support member is occluded by the front plate and the second camera is occluded by the rear plate , the electronic device is configured into a second state in which the first camera is visible, wherein, when the front plate slides in a fourth direction opposite to the third direction with respect to the rear plate in the first state, the support member is configured to slide along with the front plate and the electronic device is configured into a third state in which the second camera is visible. a front plate facing a first direction and including a display ; a rear plate facing a second direction opposite to the first direction; and a support member including a first camera facing the first direction and a second camera facing the second direction, and disposed between the front plate and the rear plate , wherein, when the front plate slides in a third direction with respect to the support member in a first state in which the first camera of the support member is occluded by the front plate and the second camera is occluded by the rear plate , the electronic device is configured into a second state in which the first camera is visible, wherein, when the front plate slides in a fourth direction opposite to the third direction with respect to the rear plate in the first state, the support member is configured to slide along with the front plate and the electronic device is configured into a third state in which the second camera is visible.
A method for coating a substrate on at least one surface of the substrate, the method comprising: a) providing: - a First Component comprising at least two epoxide groups or at least two alkenyl groups; - a Second Component comprising at least one amine group; and - at least one bioactive agent; and b) forming a covalently crosslinked polymer coating with the First Component, the Second Component, and the at least one bioactive agent, the polymer coating being covalently bound to the substrate, wherein the at least one bioactive agent is incorporated in conjunction with the formation of the crosslinked polymer coating in a one-step procedure, wherein the at least one bioactive agent comprises at least one suitable reactive group for incorporation into the covalently crosslinked polymer coating, and is covalently bound to the First Component or the Second Component in the covalently crosslinked polymer coating, and wherein the at least one bioactive agent is selected from the group consisting of: pharmaceutical drugs; compounds which act as quorum sensing inhibitors; metal complexing compounds, antimicrobial compounds; amino acids; peptides; peptidomimetics; synthetic analogues of natural bioactive molecules; synthetic peptide mimetics; proteins; receptor-targeting ligands; gene silencing agents; ambisenses; antisenses; an RNA; a living cell; an antibiotic, and a mixture thereof. a) providing: - a First Component comprising at least two epoxide groups or at least two alkenyl groups; - a Second Component comprising at least one amine group; and - at least one bioactive agent; and - a First Component comprising at least two epoxide groups or at least two alkenyl groups; - a Second Component comprising at least one amine group; and - at least one bioactive agent; and b) forming a covalently crosslinked polymer coating with the First Component, the Second Component, and the at least one bioactive agent, the polymer coating being covalently bound to the substrate, wherein the at least one bioactive agent is incorporated in conjunction with the formation of the crosslinked polymer coating in a one-step procedure,
A method for detecting pipe entrenchment or upheaval of a flexible pipe and/or the presence of an external feature to the flexible pipe, the method comprising the steps of: helically winding a temperature sensing element around a layer of a flexible pipe ; helically winding a heating element around a layer of a flexible pipe ; heating the heating element to a pre-determined temperature; measuring the temperature at at least two locations along the flexible pipe ; comparing the measured temperature response at the at least two locations; and making a determination, from the comparison of measured responses, regarding whether the flexible pipe has been entrenched, upheaved and/or an external feature is present at one of the at least two locations, characterised in that the method further comprises the step of switching off the heating element prior to measuring the temperature at the at least two locations along the temperature sensing element . helically winding a temperature sensing element around a layer of a flexible pipe ; helically winding a heating element around a layer of a flexible pipe ; heating the heating element to a pre-determined temperature; measuring the temperature at at least two locations along the flexible pipe ; comparing the measured temperature response at the at least two locations; and making a determination, from the comparison of measured responses, regarding whether the flexible pipe has been entrenched, upheaved and/or an external feature is present at one of the at least two locations, characterised in that the method further comprises the step of switching off the heating element prior to measuring the temperature at the at least two locations along the temperature sensing element .
A pump casing with an integral support flange, comprising: a casing portion for receiving an impeller therein; a suction flange for coupling the casing portion to suction piping of an associated piping system, wherein the suction flange includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to a flange of the associated piping system;; a support flange portion for coupling the pump casing to a foundation to fix and support the pump casing during operation; wherein the support flange portion is integral to the suction flange and wherein the support flange portion extends radially outwardly from and surrounds the suction flange , wherein the support flange portion includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to the foundation; and a plurality of stiffening ribs coupling an upper surface of the support flange portion to the casing portion , wherein the plurality of stiffening ribs are positioned between adjacent ones of the plurality of fastener openings in the suction flange such that a radial extension of each one of the plurality of stiffening ribs passes through a center of one of the plurality of fastener openings in the support flange portion ; wherein the support flange portion is configured to withstand moments exerted by a motor . a casing portion for receiving an impeller therein; a suction flange for coupling the casing portion to suction piping of an associated piping system, wherein the suction flange includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to a flange of the associated piping system;; a support flange portion for coupling the pump casing to a foundation to fix and support the pump casing during operation; wherein the support flange portion is integral to the suction flange and wherein the support flange portion extends radially outwardly from and surrounds the suction flange , wherein the support flange portion includes a plurality of fastener openings to receive a plurality of fasteners for fixing the pump casing to the foundation; and a plurality of stiffening ribs coupling an upper surface of the support flange portion to the casing portion , wherein the plurality of stiffening ribs are positioned between adjacent ones of the plurality of fastener openings in the suction flange such that a radial extension of each one of the plurality of stiffening ribs passes through a center of one of the plurality of fastener openings in the support flange portion ; wherein the support flange portion is configured to withstand moments exerted by a motor .