mhurhangee/ep-ind-claims huggingface dataset:
Wrapping machine comprising: - frame means (2, 8) for supporting a wrapping unit arranged to wrap a load with a film of plastic material, and - a covering apparatus arranged to supply a covering sheet to be positioned on top of said load, said covering apparatus comprising: - a reel of said covering sheet, - gripping means movable along an unwinding direction and arranged to grasp and unwind said covering sheet from said reel and arrange said covering sheet above said load, - a supporting structure connected to an upper portion of said frame means (2, 8) and slidably supporting said gripping means; and - a supplying unit supporting a respective reel of covering sheet; characterized in that said supplying unit is reversibly coupled to said supporting structure so as to be removable and replaceable with another supplying unit, in particular in case of depletion of the respective reel of covering sheet. - frame means (2, 8) for supporting a wrapping unit arranged to wrap a load with a film of plastic material, and - a covering apparatus arranged to supply a covering sheet to be positioned on top of said load, said covering apparatus comprising: - a reel of said covering sheet, - gripping means movable along an unwinding direction and arranged to grasp and unwind said covering sheet from said reel and arrange said covering sheet above said load, - a supporting structure connected to an upper portion of said frame means (2, 8) and slidably supporting said gripping means; and - a supplying unit supporting a respective reel of covering sheet; - a reel of said covering sheet, - gripping means movable along an unwinding direction and arranged to grasp and unwind said covering sheet from said reel and arrange said covering sheet above said load, - a supporting structure connected to an upper portion of said frame means (2, 8) and slidably supporting said gripping means; and - a supplying unit supporting a respective reel of covering sheet;
A device for cutting tissue at a vascular location, comprising: an elongate body having an outer surface; a tissue cutting element coupled to the elongate body, the tissue cutting element being movable relative to the body between a stored position and an operating position, the tissue cutting element having a cutting surface which cuts tissue; and a sizer coupled to the body and movable relative to the body, the sizer being naturally biased outward from the body to an outer position and being movable inward from the outer position, characterized by: the sizer being coupled to the tissue cutting element so that an outward motion is applied to the tissue cutting element when the sizer moves inward from the outer position, the outward motion applied to the tissue cutting element being directed away from the body. an elongate body having an outer surface; a tissue cutting element coupled to the elongate body, the tissue cutting element being movable relative to the body between a stored position and an operating position, the tissue cutting element having a cutting surface which cuts tissue; and a sizer coupled to the body and movable relative to the body, the sizer being naturally biased outward from the body to an outer position and being movable inward from the outer position, characterized by: the sizer being coupled to the tissue cutting element so that an outward motion is applied to the tissue cutting element when the sizer moves inward from the outer position, the outward motion applied to the tissue cutting element being directed away from the body. the sizer being coupled to the tissue cutting element so that an outward motion is applied to the tissue cutting element when the sizer moves inward from the outer position, the outward motion applied to the tissue cutting element being directed away from the body.
A microscope, comprising: an objective comprising a lens barrel and a lens system included in said lens barrel, said lens system defining an objective pupil within said lens barrel, wherein said lens system comprises a wave front manipulator element (332, 432) located in said objective pupil, said wave front manipulator element (332, 432) being controllable to vary a phase of light across said objective pupil (222, characterized in that said wave front manipulator element (332, 432) is formed by a structure (328, 428) disposed on a surface of an optical element (218, 220) included in said lens system, the microscope further comprising a processor configured to control said wave front manipulator element (332, 432) for varying the phase of light across the objective pupil, said processor is configured to cause acquisition of a first image with a first image defocus and to cause acquisition of a second image with a second image defocus, and said processor is further configured to process said first and second images for obtaining phase information. an objective comprising a lens barrel and a lens system included in said lens barrel, said lens system defining an objective pupil within said lens barrel, wherein said lens system comprises a wave front manipulator element (332, 432) located in said objective pupil, said wave front manipulator element (332, 432) being controllable to vary a phase of light across said objective pupil (222, characterized in that said wave front manipulator element (332, 432) is formed by a structure (328, 428) disposed on a surface of an optical element (218, 220) included in said lens system, the microscope further comprising a processor configured to control said wave front manipulator element (332, 432) for varying the phase of light across the objective pupil, said processor is configured to cause acquisition of a first image with a first image defocus and to cause acquisition of a second image with a second image defocus, and said processor is further configured to process said first and second images for obtaining phase information.
A method, performed by one or more processors, comprising: receiving one or more event records; generating, using the one or more event records, an event descriptor object descriptive of one or more events occurring in a networked system, wherein the event descriptor object comprises a plurality of event properties; receiving one or more entity records; generating, using the one or more entity records, an entity descriptor object descriptive of one or more entities relevant to the security of the networked system, wherein the entity descriptor object comprises a plurality of entity properties; incorporating, into an object graph, the event descriptor object and the entity descriptor object; and associating, in the object graph, the event descriptor object with the entity descriptor object using at least one of the plurality of event properties and at least one of the plurality of entity properties, wherein the one or more events occurring in the networked system are suspicious system events indicative of a cybersecurity threat, wherein the object graph comprises a path between the event descriptor object and a course of action entity descriptor object descriptive of one or more actions for mitigating the cybersecurity threat. receiving one or more event records; generating, using the one or more event records, an event descriptor object descriptive of one or more events occurring in a networked system, wherein the event descriptor object comprises a plurality of event properties; receiving one or more entity records; generating, using the one or more entity records, an entity descriptor object descriptive of one or more entities relevant to the security of the networked system, wherein the entity descriptor object comprises a plurality of entity properties; incorporating, into an object graph, the event descriptor object and the entity descriptor object; and associating, in the object graph, the event descriptor object with the entity descriptor object using at least one of the plurality of event properties and at least one of the plurality of entity properties, wherein the one or more events occurring in the networked system are suspicious system events indicative of a cybersecurity threat, wherein the object graph comprises a path between the event descriptor object and a course of action entity descriptor object descriptive of one or more actions for mitigating the cybersecurity threat.
A lighting unit comprising: - a circuit board configured to support a plurality of LED light sources, - a substantially linear housing for holding the circuit board, wherein the substantially linear housing comprises: a power facility configured to provide power to the plurality of LED light sources, characterized in that the substantially linear housing comprises: a channel between the circuit board and the power facility for shielding the plurality of LED light sources from heat produced by the power facility and for channeling heat produced by the light sources away from the light sources, wherein the substantially linear housing comprises a power supply chamber comprising the power facility, wherein substantially linear housing is an extruded housing that separates the channel from the power supply chamber, and wherein the channel provides an internal space between the circuit board and the power supply chamber, wherein the power facility includes one or more power conversion devices that convert power received by an external power source to a form suitable for operation of the lighting unit. - a circuit board configured to support a plurality of LED light sources, - a substantially linear housing for holding the circuit board, wherein the substantially linear housing comprises: a power facility configured to provide power to the plurality of LED light sources, characterized in that the substantially linear housing comprises: a channel between the circuit board and the power facility for shielding the plurality of LED light sources from heat produced by the power facility and for channeling heat produced by the light sources away from the light sources, wherein the substantially linear housing comprises a power supply chamber comprising the power facility, wherein substantially linear housing is an extruded housing that separates the channel from the power supply chamber, and wherein the channel provides an internal space between the circuit board and the power supply chamber, wherein the power facility includes one or more power conversion devices that convert power received by an external power source to a form suitable for operation of the lighting unit. a channel between the circuit board and the power facility for shielding the plurality of LED light sources from heat produced by the power facility and for channeling heat produced by the light sources away from the light sources, wherein the substantially linear housing comprises a power supply chamber comprising the power facility, wherein substantially linear housing is an extruded housing that separates the channel from the power supply chamber, and wherein the channel provides an internal space between the circuit board and the power supply chamber, wherein the power facility includes one or more power conversion devices that convert power received by an external power source to a form suitable for operation of the lighting unit.
Circuit housing having at least one printed circuit board which is arranged in said circuit housing and has an electrical circuit and at least two holes (14, 16) in which peg-like positioning elements (18, 20) which project away from the circuit housing engage at least for the purpose of positioning the printed circuit board relative to the circuit housing, wherein at least one positioning element (18, 20) from amongst the positioning elements (18, 20) projects without play into one circular hole from amongst the holes and electrical plug contacts project away from a base of the circuit housing, said electrical plug contacts being intended to be inserted into openings in the printed circuit board, characterized in that a further positioning element, which is accommodated in a further hole from amongst the holes (14, 16), has spreading fingers which are separated from one another by at least one recess, project into or through the further hole, are designed to be elastic transverse to the direction of an imaginary connecting line of the holes (14, 16) and have a cross section of such a kind that a) as seen in the direction of the imaginary connecting line, there is play between the spreading fingers and a radially inner circumferential surface of the further hole on both sides in each case, b) but the spreading fingers make contact by way of their diametrically opposite side faces with the radially inner circumferential face of the further hole perpendicular to the imaginary connecting line without play only along a contact line or a contact point in each case. a) as seen in the direction of the imaginary connecting line, there is play between the spreading fingers and a radially inner circumferential surface of the further hole on both sides in each case, b) but the spreading fingers make contact by way of their diametrically opposite side faces with the radially inner circumferential face of the further hole perpendicular to the imaginary connecting line without play only along a contact line or a contact point in each case.
A method of aligning optical wafers having formed thereon at least one lens element and at least three reflectors in determined positions, the method comprising: providing a first wafer having at least three reflectors and one lens formed thereon in fixed and determined relative positions, wherein the at least three reflectors and one lens of the first wafer are formed from a first mould; providing a second wafer having at least three reflectors and one lens formed thereon in fixed and determined relative positions, wherein the at least three reflectors and one lens of the second wafer are formed from a second mould; using a first interferometer to align a first wafer by optical interaction between the interferometer and the reflectors on the first wafer; using a second interferometer to align a second wafer by optical interaction between the interferometer and the reflectors on the second wafer, wherein the reflectors on the first and second wafers are lenses used exclusively for alignment of the wafers; whereby the relative position of the lenses on each of the first and second wafer is thereby determined. providing a first wafer having at least three reflectors and one lens formed thereon in fixed and determined relative positions, wherein the at least three reflectors and one lens of the first wafer are formed from a first mould; providing a second wafer having at least three reflectors and one lens formed thereon in fixed and determined relative positions, wherein the at least three reflectors and one lens of the second wafer are formed from a second mould; using a first interferometer to align a first wafer by optical interaction between the interferometer and the reflectors on the first wafer; using a second interferometer to align a second wafer by optical interaction between the interferometer and the reflectors on the second wafer, wherein the reflectors on the first and second wafers are lenses used exclusively for alignment of the wafers; whereby the relative position of the lenses on each of the first and second wafer is thereby determined.
An apparatus comprising: a base; a pivot member affixed to the base via a first hinge and configured to pivot relative to the base via the first hinge, the pivot member being configured to physically engage a strap to maintain the pivot member in a non-deflected position; a biasing member configured to urge the pivot member into a deflected position; a sensor configured to detect when the pivot member is in the deflected position, wherein the sensor is configured to, in response to detecting that the pivot member is in the deflected position, generate an alert signal; and processing circuitry configured to receive the alert signal and, in response to receiving the alert signal, transmit an alert triggering signal to initiate an alert. a base; a pivot member affixed to the base via a first hinge and configured to pivot relative to the base via the first hinge, the pivot member being configured to physically engage a strap to maintain the pivot member in a non-deflected position; a biasing member configured to urge the pivot member into a deflected position; a sensor configured to detect when the pivot member is in the deflected position, wherein the sensor is configured to, in response to detecting that the pivot member is in the deflected position, generate an alert signal; and processing circuitry configured to receive the alert signal and, in response to receiving the alert signal, transmit an alert triggering signal to initiate an alert.
A method for receiving data by a user equipment in a Coordinated Multi-Point, CoMP, wireless access system, the method comprising: receiving information on a plurality of Channel State Information, CSI, processes for reporting CSI; and receiving the data from a base station, by assuming that a Physical Resource Block, PRB, bundling is used only if all of the plurality of CSI processes are configured for reporting a Precoding Matrix Indicator, PMI, and a Rank Indicator, RI; or by assuming that the PRB bundling is not used if at least one of the plurality of CSI processes is not configured for reporting the PMI and the RI. receiving information on a plurality of Channel State Information, CSI, processes for reporting CSI; and receiving the data from a base station, by assuming that a Physical Resource Block, PRB, bundling is used only if all of the plurality of CSI processes are configured for reporting a Precoding Matrix Indicator, PMI, and a Rank Indicator, RI; or by assuming that the PRB bundling is not used if at least one of the plurality of CSI processes is not configured for reporting the PMI and the RI.
A method for erecting a multirotor wind turbine, the wind turbine comprising a tower structure, at least two energy generating units, each energy generating unit comprising a nacelle and a hub carrying a set of wind turbine blades, and at least one carrier structure (1, 1a, 1b), each carrier structure (1, 1a, 1b) being arranged to carry one or more energy generating units, the energy generating units thereby being mounted on the tower structure via the carrier structure(s) (1, 1a, 1b) when the wind turbine has been erected, the method comprising the steps of: - arranging the carrier structure (1, 1a, 1b) circumferentially with respect to the tower structure, at a lower part of the tower structure, - hoisting the carrier structure (1, 1a, 1b) to an upper part of the tower structure, using a hoisting arrangement (3, 4, 8), - securing the carrier structure (1, 1a, 1b) to the tower structure, - subsequently hoisting the two or more energy generating units to the carrier structure (1, 1a, 1b), using the hoisting arrangement (3, 4, 8), and - securing the energy generating units to the carrier structure (1, 1a, 1b) which was previously secured to the tower structure. - arranging the carrier structure (1, 1a, 1b) circumferentially with respect to the tower structure, at a lower part of the tower structure, - hoisting the carrier structure (1, 1a, 1b) to an upper part of the tower structure, using a hoisting arrangement (3, 4, 8), - securing the carrier structure (1, 1a, 1b) to the tower structure, - subsequently hoisting the two or more energy generating units to the carrier structure (1, 1a, 1b), using the hoisting arrangement (3, 4, 8), and - securing the energy generating units to the carrier structure (1, 1a, 1b) which was previously secured to the tower structure.
A process of recovering xenon from a Xe -containing feed gas, comprising the steps of: feeding the Xe -containing feed gas into an adsorption vessel containing an adsorbent having a Xe/N 2 selectivity ratio of less than 65, wherein the Xe -containing feed gas comprises an initial concentration of nitrogen greater than 50% and an initial concentration of xenon of at least 0.05%; evacuating the adsorption vessel by reducing pressure from atmospheric pressure to below atmospheric pressure, wherein the evacuation comprises two phases: a first phase wherein a first part of the gas in the vessel is evacuated from the vessel, and a subsequent phase commencing when the below atmospheric pressure reaches P1 wherein a first xenon-enriched gas is recovered from the vessel; purging the adsorption vessel when the below atmospheric pressure reaches P2 to recover a second xenon-enriched gas, wherein the purging is maintained at the subatmospheric pressure P2; and combining the first xenon-enriched gas and the second xenon-enriched gas to provide a product gas comprising a final concentration of xenon at least 20 times greater than the initial concentration of xenon; wherein P1 is equal to or greater than P2. feeding the Xe -containing feed gas into an adsorption vessel containing an adsorbent having a Xe/N 2 selectivity ratio of less than 65, wherein the Xe -containing feed gas comprises an initial concentration of nitrogen greater than 50% and an initial concentration of xenon of at least 0.05%; evacuating the adsorption vessel by reducing pressure from atmospheric pressure to below atmospheric pressure, wherein the evacuation comprises two phases: a first phase wherein a first part of the gas in the vessel is evacuated from the vessel, and a subsequent phase commencing when the below atmospheric pressure reaches P1 wherein a first xenon-enriched gas is recovered from the vessel; purging the adsorption vessel when the below atmospheric pressure reaches P2 to recover a second xenon-enriched gas, wherein the purging is maintained at the subatmospheric pressure P2; and combining the first xenon-enriched gas and the second xenon-enriched gas to provide a product gas comprising a final concentration of xenon at least 20 times greater than the initial concentration of xenon; wherein P1 is equal to or greater than P2.
An emulsion-type base makeup cosmetic, comprising the following components (a), (b), (c), and (d): (a) a powdered pigment comprising a red composite pigment in which lithol rubine BCA is intercalated into an inorganic substance; (b) powdered pigments comprising an extender pigment, a coloring pigment, and a pearl pigment, and which are different from the component (a); (c) an oily material; and (d) a water-soluble calcium salt which is at least one selected from calcium chloride, calcium lactate, or calcium acetate. (a) a powdered pigment comprising a red composite pigment in which lithol rubine BCA is intercalated into an inorganic substance; (b) powdered pigments comprising an extender pigment, a coloring pigment, and a pearl pigment, and which are different from the component (a); (c) an oily material; and (d) a water-soluble calcium salt which is at least one selected from calcium chloride, calcium lactate, or calcium acetate.
Method for managing a hybrid telecommunication network, that can be implemented by a gateway between an ad hoc network and a fixed network, this method comprising a step of selection, from candidate nodes of said ad hoc network situated at one hop from said gateway and having a connectivity with said gateway above a predetermined threshold, of at least one node called "gateway node" for relaying at least a part of the traffic between other nodes of the ad hoc network and said gateway, said method comprising a step of broadcasting, only to said at least one gateway node, an announcement message (GWADV) comprising a route to said gateway, said broadcasting being performed by said gateway, said method being characterized in that it comprises a step of computation of a duration (Si) taking into account an activity (Ai) and a mobility (Mi) of the nodes of said ad hoc network, and a step of waiting for said duration (Si) between two successive broadcasts of said announcement message (GWADV).