mhurhangee/patent-ind-claim-en huggingface dataset:
A retrofit Light Emitting Diode, LED, tube for replacing a fluorescent tube, wherein said retrofit LED tube is arranged to be connected to a ballast, said retrofit LED tube comprising: - an LED array for emitting light; characterised in that the retrofit LED tube further comprises - a configurable matching circuit for controlling input power from a connected ballast , when connected, towards said LED array ; - a power rectifier having an input connected to said matching circuit and an output connected to said LED array , wherein said power rectifier is arranged to receive an AC supply voltage at its input, to convert said AC supply voltage to a DC voltage, and to provide said DC voltage, via its output, to said LED array ; - a ballast determining unit arranged for identifying a type of ballast connected to said retrofit LED tube by: - controlling an output voltage of said power rectifier to a first voltage and measuring a first current provided by said power rectifier ; - controlling said output voltage of said power rectifier to a second voltage and measuring a second current provided by said power rectifier , wherein said second voltage differs from said first voltage; - determining said type of ballast based on said first and second output voltages and said measured first and second currents; wherein said ballast determining unit is further arranged to configure said configurable matching circuit based on said determined type of ballast. - an LED array for emitting light; - a configurable matching circuit for controlling input power from a connected ballast , when connected, towards said LED array ; - a power rectifier having an input connected to said matching circuit and an output connected to said LED array , wherein said power rectifier is arranged to receive an AC supply voltage at its input, to convert said AC supply voltage to a DC voltage, and to provide said DC voltage, via its output, to said LED array ; - a ballast determining unit arranged for identifying a type of ballast connected to said retrofit LED tube by: - controlling an output voltage of said power rectifier to a first voltage and measuring a first current provided by said power rectifier ; - controlling said output voltage of said power rectifier to a second voltage and measuring a second current provided by said power rectifier , wherein said second voltage differs from said first voltage; - determining said type of ballast based on said first and second output voltages and said measured first and second currents;
A lighting device, comprising: - a first wire having a first longitudinal axis ; - a second wire having a second longitudinal axis , - wherein the first wire and the second wire intersect within an intersection region ; - a light-emitting element arranged at the intersection region and being in electrical contact to the first wire and to the second wire , - wherein the first wire comprises a bent section arranged in the intersection region , such that a predefined minimum distance is provided between the first wire and the second wire in the intersection region , - wherein a plurality of first wires and/or a plurality of second wires is provided, intersecting at a plurality of intersecting regions , - wherein a plurality of light-emitting elements is provided, the light-emitting elements being arranged at the intersection regions , - wherein the first longitudinal axis and the second longitudinal axis are arranged substantially within the same plane, - characterized in that the second wire comprises a bent section substantially in the center between two intersection regions . - a first wire having a first longitudinal axis ; - a second wire having a second longitudinal axis , - wherein the first wire and the second wire intersect within an intersection region ; - a light-emitting element arranged at the intersection region and being in electrical contact to the first wire and to the second wire , - wherein the first wire comprises a bent section arranged in the intersection region , such that a predefined minimum distance is provided between the first wire and the second wire in the intersection region , - wherein a plurality of first wires and/or a plurality of second wires is provided, intersecting at a plurality of intersecting regions , - wherein a plurality of light-emitting elements is provided, the light-emitting elements being arranged at the intersection regions , - wherein the first longitudinal axis and the second longitudinal axis are arranged substantially within the same plane, - characterized in that the second wire comprises a bent section substantially in the center between two intersection regions .
Cosmetic composition which is in the form of a liquid emulsion comprising: ∘ water; ∘ at least one film-forming agent chosen from vinyl polymers comprising at least one carbosiloxane dendrimer-based unit chosen from polymers of which the INCI name is Acrylates / Polytrimethylsiloxy Methacrylate Copolymer ∘ from 5% to 15% by weight, relative to the weight of the composition, of at least one polar non-volatile hydrocarbon-based oil; ∘ from 1% to 8% by weight, relative to the weight of the composition, of at least one non-volatile phenyl silicone oil, preferably without dimethicone fragment. ∘ water; ∘ at least one film-forming agent chosen from vinyl polymers comprising at least one carbosiloxane dendrimer-based unit chosen from polymers of which the INCI name is Acrylates / Polytrimethylsiloxy Methacrylate Copolymer ∘ from 5% to 15% by weight, relative to the weight of the composition, of at least one polar non-volatile hydrocarbon-based oil; ∘ from 1% to 8% by weight, relative to the weight of the composition, of at least one non-volatile phenyl silicone oil, preferably without dimethicone fragment.
A catheter comprising: (a) a distal tube comprising a tubular wall and a tube lumen defined within the tube by the tubular wall ; (b) a support membrane disposed around and coupled to a portion of an external wall of the distal tube , wherein a proximal end of the support membrane extends at most to the proximal end of the distal tube , wherein the support membrane is a partial circumference membrane; and (c) a proximal shaft operably coupled to a proximal portion of the distal tube , the proximal shaft comprising: (i) a first elongate member ; (ii) a second elongate member ; and (iii) a first sheath segment disposed around a first length of the first and second elongate members such that the first length of the first and second elongate members is disposed within the first sheath segment , wherein the first and second elongate members are configured to extend distally into a portion of the distal tube . (a) a distal tube comprising a tubular wall and a tube lumen defined within the tube by the tubular wall ; (b) a support membrane disposed around and coupled to a portion of an external wall of the distal tube , wherein a proximal end of the support membrane extends at most to the proximal end of the distal tube , wherein the support membrane is a partial circumference membrane; and (c) a proximal shaft operably coupled to a proximal portion of the distal tube , the proximal shaft comprising: (i) a first elongate member ; (ii) a second elongate member ; and (iii) a first sheath segment disposed around a first length of the first and second elongate members such that the first length of the first and second elongate members is disposed within the first sheath segment , wherein the first and second elongate members are configured to extend distally into a portion of the distal tube . (i) a first elongate member ; (ii) a second elongate member ; and (iii) a first sheath segment disposed around a first length of the first and second elongate members such that the first length of the first and second elongate members is disposed within the first sheath segment ,
A pharmaceutical composition comprising 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide or a pharmaceutically acceptable salt, solvate or hydrate thereof for use in the treatment of acute exacerbations of chronic obstructive pulmonary disease in human patients having <2% blood eosinophils.
An ion manipulation device comprising: a. a first surface and a second surface ; b. an array of inner electrodes coupled to each of the first and second surfaces; c. first and second arrays of outer electrodes coupled to each of the first and second surfaces, each array of outer electrodes positioned on either side of the inner electrodes; and, d. an RF voltage source and DC voltage sources, configured to apply only DC voltage from a first DC voltage source to the first and second outer arrays of electrodes coupled to each of the first and second surfaces, and configured to apply an RF voltage, with a superimposed DC voltage from a second DC voltage source, to the inner electrodes, wherein the application of the RF voltage creates a pseudopotential that inhibits charged particles from approaching either of the first and second surface, wherein the application of the second DC voltage creates a superimposed electric field, such that ions move between the surfaces within an ion confinement area in the direction of the electric field or can be trapped in the ion confinement area. a. a first surface and a second surface ; b. an array of inner electrodes coupled to each of the first and second surfaces; c. first and second arrays of outer electrodes coupled to each of the first and second surfaces, each array of outer electrodes positioned on either side of the inner electrodes; and, d. an RF voltage source and DC voltage sources, configured to apply only DC voltage from a first DC voltage source to the first and second outer arrays of electrodes coupled to each of the first and second surfaces, and configured to apply an RF voltage, with a superimposed DC voltage from a second DC voltage source, to the inner electrodes, wherein the application of the RF voltage creates a pseudopotential that inhibits charged particles from approaching either of the first and second surface, wherein the application of the second DC voltage creates a superimposed electric field, such that ions move between the surfaces within an ion confinement area in the direction of the electric field or can be trapped in the ion confinement area.
An information sending apparatus comprising: a processing unit , configured to determine, based on a period of a physical broadcast channel, PBCH, wherein the period of the PBCH is a period of a synchronization block burst set, SS block burst set, a period X for sending a system information block SIB1; and a sending unit , configured to send at least one said SIB1 to a terminal device within a transmission time interval, TTI, period by using the X as a period, wherein the TTI period is a preset value 160 ms, and the period X is the same as a period of the PBCH, where the period of the PBCH is a preset value 5 ms, 10 ms, 20 ms, 40 ms or 80 ms. a processing unit , configured to determine, based on a period of a physical broadcast channel, PBCH, wherein the period of the PBCH is a period of a synchronization block burst set, SS block burst set, a period X for sending a system information block SIB1; and a sending unit , configured to send at least one said SIB1 to a terminal device within a transmission time interval, TTI, period by using the X as a period, wherein the TTI period is a preset value 160 ms, and the period X is the same as a period of the PBCH, where the period of the PBCH is a preset value 5 ms, 10 ms, 20 ms, 40 ms or 80 ms.
A building structure including a plurality of vertical elements extending vertically from a ground surface with at least a first of said vertical elements connected to a second of said vertical elements by a coupling member, said coupling member comprising: a damping element for damping vibrations in said building structure resulting from relative movement between said first and second vertical elements due to lateral loads applied to the building structure, said damping element undergoing deformation due to said relative movement, said damping element compriseing first and second sets of two or more plates each, wherein the plates in said first set are interdigitated with the plates in said second set , and spaced from each other in a direction substantially parallel to the ground surface, and a damping material disposed between each plate in said sets of plates ; at least one of a first and second fuse member connected to at least one of first and second ends of said damping element respectively; said fuse member selected from a material, and otherwise sized and dimensioned to exhibit semi-rigid behavior when said damping element undergoes deformation due to loads below a predetermined load limit and to undergo deformation when loads reach said predetermined load limit, such that said damping element is prevented from deforming due to loads above said predetermined load limit; first and second connecting means for rigidly connecting said first and second fuse members to said first and second vertical elements, respectively. a damping element for damping vibrations in said building structure resulting from relative movement between said first and second vertical elements due to lateral loads applied to the building structure, said damping element undergoing deformation due to said relative movement, said damping element compriseing first and second sets of two or more plates each, wherein the plates in said first set are interdigitated with the plates in said second set , and spaced from each other in a direction substantially parallel to the ground surface, and a damping material disposed between each plate in said sets of plates ; at least one of a first and second fuse member connected to at least one of first and second ends of said damping element respectively; said fuse member selected from a material, and otherwise sized and dimensioned to exhibit semi-rigid behavior when said damping element undergoes deformation due to loads below a predetermined load limit and to undergo deformation when loads reach said predetermined load limit, such that said damping element is prevented from deforming due to loads above said predetermined load limit; first and second connecting means for rigidly connecting said first and second fuse members to said first and second vertical elements, respectively.
A method for joining primary and secondary members comprising: providing a primary member , a secondary member and a heating element which is joined to one of the primary and secondary members , wherein the heating element includes an electrically insulating matrix material and an electrically conductive reinforcing element extending through the matrix material; bringing the other of the primary and secondary members and the heating element into engagement; and controlling a flow of electrical current in the reinforcing element so as to resistively heat and fuse at least some of the matrix material of the heating element with a matrix material of the other of the primary and secondary members , characterised in that the primary and secondary members are defined by different portions of a unitary member , the primary member being defined by a primary portion of the unitary member and the secondary member being defined by a secondary portion of the unitary member , the method comprising forming a recess in the unitary member so as to define the primary portion of the unitary member to one side of the recess and the secondary portion of the unitary member to the other side of the recess , inserting the heating element into the recess and compressing the heating element between the primary and secondary portions of the unitary member . providing a primary member , a secondary member and a heating element which is joined to one of the primary and secondary members , wherein the heating element includes an electrically insulating matrix material and an electrically conductive reinforcing element extending through the matrix material; bringing the other of the primary and secondary members and the heating element into engagement; and controlling a flow of electrical current in the reinforcing element so as to resistively heat and fuse at least some of the matrix material of the heating element with a matrix material of the other of the primary and secondary members , characterised in that the primary and secondary members are defined by different portions of a unitary member , the primary member being defined by a primary portion of the unitary member and the secondary member being defined by a secondary portion of the unitary member , the method comprising forming a recess in the unitary member so as to define the primary portion of the unitary member to one side of the recess and the secondary portion of the unitary member to the other side of the recess , inserting the heating element into the recess and compressing the heating element between the primary and secondary portions of the unitary member .
An ascend system for ascending along a main cable , the ascend system comprising a back holding means for being made integral with a user 's back, a retaining means comprising a first end part and a second end part , the first end part being to be integral with the back holding means , the second end part comprising a lumen for receiving the main cable , so that the second end part can slide along the main cable , the retaining means further comprising a bar , the first end part being a portion of the bar for being integral with the back holding means , the second end part comprising a sliding device , the ascend system being characterised in that the bar extends from the first end part , along a substantially rectilinear direction, and then has a curvature, the bar extending above the user 's head when the first end part is integral with the back holding means , this back holding means being integral with the user 's back.
A tool assembly for tensioning tower bolts of a wind turbine tower, the tool assembly comprising: - a connecting arrangement configured to connect the tool assembly to a part of a wind turbine tower, and - a tool holding part arranged to hold a tool for tensioning tower bolts , wherein the tool holding part is attached to the connecting arrangement in a rotatable manner, thereby allowing the tool to be rotated between at least a first orientation and a second orientation, and characterised in that the tool assembly further comprises a releasable locking arrangement for releasably locking the tool holding part in the first orientation and in the second orientation. - a connecting arrangement configured to connect the tool assembly to a part of a wind turbine tower, and - a tool holding part arranged to hold a tool for tensioning tower bolts , wherein the tool holding part is attached to the connecting arrangement in a rotatable manner, thereby allowing the tool to be rotated between at least a first orientation and a second orientation, and characterised in that the tool assembly further comprises a releasable locking arrangement for releasably locking the tool holding part in the first orientation and in the second orientation.
An exhaust-duct valve for an exhaust duct, which exhaust-duct valve is arranged to connect to the outer end of the exhaust duct , and which valve comprises: - a casing , which has an internal diameter (X2) and an exhaust-air opening , - an opening horn , which is located inside the casing and is arranged to be connected to the outer end of the exhaust duct in a flowing connection and to lead air in a flow direction (Y) towards the exhaust-air opening of the casing , and - an insert , which: ∘ is located at least partly inside the casing at a distance (Y1) in the flow direction (Y) from the outer end of the exhaust duct , ∘ comprises an impingement surface widening in the flow direction (Y), and which insert ∘ comprises an exit surface narrowing in the flow direction (Y), whereby the ratio of the distance (Y1) between the insert and the outer end of the exhaust duct to the internal diameter (X2) of the casing is 0,4 or more. - a casing , which has an internal diameter (X2) and an exhaust-air opening , - an opening horn , which is located inside the casing and is arranged to be connected to the outer end of the exhaust duct in a flowing connection and to lead air in a flow direction (Y) towards the exhaust-air opening of the casing , and - an insert , which: ∘ is located at least partly inside the casing at a distance (Y1) in the flow direction (Y) from the outer end of the exhaust duct , ∘ comprises an impingement surface widening in the flow direction (Y), and which insert ∘ comprises an exit surface narrowing in the flow direction (Y), whereby the ratio of the distance (Y1) between the insert and the outer end of the exhaust duct to the internal diameter (X2) of the casing is 0,4 or more. ∘ is located at least partly inside the casing at a distance (Y1) in the flow direction (Y) from the outer end of the exhaust duct , ∘ comprises an impingement surface widening in the flow direction (Y), and which insert ∘ comprises an exit surface narrowing in the flow direction (Y),
Blade for a wind turbine comprising a trailing edge and a leading edge longitudinally extending from the blade tip to the blade root , a lightning protection system with at least one lightning receptor arranged on the blade tip for receiving lightning and at least one lightning down conductor for conducting a lightning current received by the lightning receptor to the blade root , and an ice formation prevention system with a conductive layer arranged along the leading edge having a first end oriented to the blade tip and a second end oriented to the blade root , and a first connection terminal placed on the first end of the conductive layer and a second connection terminal placed on the second end of the conductive layer for electrically connecting the conductive layer with a power supply unit, the first connection terminal of the conductive layer is electrically connected with the lightning down conductor , characterized in that the first connection terminal partially contacts the conductive layer and has a rear section connected to the conductive layer and a front section that longitudinally extends towards the blade tip .
A method performed by a device for identifying a network node within a network to which data will be replicated, the method comprising: encrypting a session key according to an attribute-based encryption scheme based on an attribute relating to: a geolocation policy specifying one or more geographic locations, a legal requirement or restriction, the network node, or a company/organization or a part thereof, wherein the attribute determines whether the data is allowed or not allowed to be replicated in the network node; broadcasting the encrypted session key within the network; receiving at least one message encrypted using the session key from at least one network node within the network; and selecting the network node from the at least one network node to which the data will be replicated based on the network node being capable of encrypting a message from the at least one message using the session key. encrypting a session key according to an attribute-based encryption scheme based on an attribute relating to: a geolocation policy specifying one or more geographic locations, a legal requirement or restriction, the network node, or a company/organization or a part thereof, wherein the attribute determines whether the data is allowed or not allowed to be replicated in the network node; broadcasting the encrypted session key within the network; receiving at least one message encrypted using the session key from at least one network node within the network; and selecting the network node from the at least one network node to which the data will be replicated based on the network node being capable of encrypting a message from the at least one message using the session key.