mhurhangee/patent-ind-claim-en huggingface dataset:
An occlusive device comprising: a membrane component configured to inhibit passage of blood; and an expandable frame having a distal end and a proximal end and having: a cupped occlusive component fully covered by the membrane component; one or more anchors ; and a hub component disposed between, and connected to, said occlusive component and said one or more anchors; wherein said expandable frame is formed from a plurality of wires extending from the proximal end to the distal end of said frame; wherein at least one of said anchors extends away from the device in a generally distal direction and includes a first end in contact with the device, a second end, a first leg and a second leg, and the first leg and the second leg converge at the second end of the anchor to form a loop ; and wherein at least one of said anchors is at least partially covered by a membrane covering ; and characterised in that the at least one of said anchors includes a rounded loop end; and that the at least one of said anchors further comprises at least one barb affixed to or wrapped around the anchor. a membrane component configured to inhibit passage of blood; and an expandable frame having a distal end and a proximal end and having: a cupped occlusive component fully covered by the membrane component; one or more anchors ; and a hub component disposed between, and connected to, said occlusive component and said one or more anchors; a cupped occlusive component fully covered by the membrane component; one or more anchors ; and a hub component disposed between, and connected to, said occlusive component and said one or more anchors; wherein said expandable frame is formed from a plurality of wires extending from the proximal end to the distal end of said frame; wherein at least one of said anchors extends away from the device in a generally distal direction and includes a first end in contact with the device, a second end, a first leg and a second leg, and the first leg and the second leg converge at the second end of the anchor to form a loop ; and wherein at least one of said anchors is at least partially covered by a membrane covering ; and characterised in that the at least one of said anchors includes a rounded loop end; and that the at least one of said anchors further comprises at least one barb affixed to or wrapped around the anchor.
A cabin for transporting passengers for a hybrid cable/rail transportation system, wherein the transportation system comprises a first trolley , a second trolley , at least a system portion configured as cable transportation system with at least a cable and at least a system portion configured as rail transportation system with at least a rail upstream and/or downstream of the system portion configured as cable transportation system , the cabin being configured for being moved along the entire system, respectively hanging from the cable along the system portion configured as cable transportation system and resting on the rail along the system portion configured as rail transportation system , characterized in that the cabin comprises a roof , provided with a first coupling device for selectively coupling with a first trolley configured for being supported hanging from the cable , and a floor provided with a second coupling device for selectively coupling with a second trolley supported resting on the rail .
Method for computing an exposure pattern for exposing a desired pattern on a target in a charged-particle multi-beam processing apparatus , in which a particle beam (lb, 50) is directed to and illuminates a pattern definition device comprising an aperture array composed of a plurality of blanking apertures through which said particle beam (pb) penetrates for writing said desired pattern by exposing a multitude of pixels (px) within an image area on the target, wherein in the pattern definition device said plurality of blanking apertures is arranged in a predetermined arrangement defining mutual positions of the blanking apertures, each blanking aperture being selectively adjustable with regard to a dose value to be exposed through the respective blanking aperture onto a corresponding aperture image generated on the target during a respective exposure interval, said dose value taking a respective value selected from a discrete gray scale, wherein during a writing process of said desired pattern, a sequence of exposure intervals (T1) is made, wherein in each exposure interval the blanking apertures are imaged onto the target , thus generating a corresponding plurality of aperture images (b1, bi0, bi1), wherein the method comprises: i) providing the desired pattern as a graphical representation on the image area on the target, said graphical representation having a predetermined width of resolution, said width being larger than a nominal distance between neighboring positions of the pixels within said image area, ii) providing a convolution kernel , said kernel describing a mapping from an element of the graphical representation to a group of pixels, said group of pixels being centered around a nominal position of said element, iii) calculating a nominal exposure pattern as a pixel raster graphics (ps) defined on the multitude of pixels, by convolution of the graphical representation with the convolution kernel , said nominal exposure pattern being suitable to create a nominal dose distribution on the target, wherein the convolution kernel represents a point spreading function of a reference writing apparatus to be emulated by means of said processing apparatus. i) providing the desired pattern as a graphical representation on the image area on the target, said graphical representation having a predetermined width of resolution, said width being larger than a nominal distance between neighboring positions of the pixels within said image area, ii) providing a convolution kernel , said kernel describing a mapping from an element of the graphical representation to a group of pixels, said group of pixels being centered around a nominal position of said element, iii) calculating a nominal exposure pattern as a pixel raster graphics (ps) defined on the multitude of pixels, by convolution of the graphical representation with the convolution kernel , said nominal exposure pattern being suitable to create a nominal dose distribution on the target,
A plug for plugging wells, and in particular oil and gas wells, said plug comprising: a plug body having a cavity for receiving heating means; means for receiving a eutectic alloy ; means for releasably retaining heating means within the cavity of the plug body , said means being located within the cavity; wherein the plug further comprises a leading head in the form of an open ended cylinder , wherein the cylinder is open at the leading face; and characterised in that the leading head further comprises one or more wire meshes or brushes arranged on the external surface of the cylinder . a plug body having a cavity for receiving heating means; means for receiving a eutectic alloy ; means for releasably retaining heating means within the cavity of the plug body , said means being located within the cavity; wherein the plug further comprises a leading head in the form of an open ended cylinder , wherein the cylinder is open at the leading face; and characterised in that the leading head further comprises one or more wire meshes or brushes arranged on the external surface of the cylinder .
An imaging system for imaging anisotropic particles comprising: a light source configured to produce illumination light along an illumination path toward a target, the illumination path including a circularly polarizing filter and the illumination light being polarized according to a first polarization configuration; a target reflecting the illumination light along a collection path toward an imaging sensor wherein the target includes a substrate having a first reflecting surface and a transparent layer on the first reflecting surface forming a second reflecting surface spaced apart from the first reflecting surface such that the light reflected along the collection path includes an interference signal; the target including at least one anisotropic particle attached to the second reflecting surface of the substrate; an analyzer positioned in the collection path configured to selectively transmit light polarized according to the first polarization configuration that interacted with the at least one anisotropic particle to optimize the reflected light intensity received by the imaging sensor. a light source configured to produce illumination light along an illumination path toward a target, the illumination path including a circularly polarizing filter and the illumination light being polarized according to a first polarization configuration; a target reflecting the illumination light along a collection path toward an imaging sensor wherein the target includes a substrate having a first reflecting surface and a transparent layer on the first reflecting surface forming a second reflecting surface spaced apart from the first reflecting surface such that the light reflected along the collection path includes an interference signal; the target including at least one anisotropic particle attached to the second reflecting surface of the substrate; an analyzer positioned in the collection path configured to selectively transmit light polarized according to the first polarization configuration that interacted with the at least one anisotropic particle to optimize the reflected light intensity received by the imaging sensor.
A silane compound represented by the general formula described below: (wherein R 1 and R 2 each independently represent hydrogen or an alkyl group; wherein R 1 and R 2 may form a crosslinked structure represented by -(CH 2 ) e -; R 3 and R 4 each independently represent hydrogen or an alkyl group; wherein R 3 and R 4 may form a crosslinked structure represented by -(CH 2 ) f -; R 5 is hydrogen or an alkyl group; R 6 is an alkoxy group, or an amino group substituted with one or more alkyl groups; R 7 is hydrogen or an alkyl group; a is an integer of 1; b is an integer of 1; c is an integer of 1 to 3; d is an integer of 0 to 5; e and f are each independently an integer of 1 to 3; and n is an integer of 1 to 3). (wherein R 1 and R 2 each independently represent hydrogen or an alkyl group; wherein R 1 and R 2 may form a crosslinked structure represented by -(CH 2 ) e -; R 3 and R 4 each independently represent hydrogen or an alkyl group; wherein R 3 and R 4 may form a crosslinked structure represented by -(CH 2 ) f -; R 5 is hydrogen or an alkyl group; R 6 is an alkoxy group, or an amino group substituted with one or more alkyl groups; R 7 is hydrogen or an alkyl group; a is an integer of 1; b is an integer of 1; c is an integer of 1 to 3; d is an integer of 0 to 5; e and f are each independently an integer of 1 to 3; and n is an integer of 1 to 3).
A method for the autonomous mapping of an energy meter which comprises the following steps: i) obtaining at least one signal from a power transformer , ii) obtaining at least one signal from an energy meter , iii) correlating the at least one signal from the power transformer with the at least one signal from an energy meter, thereby obtaining a correlation value , iv) based on the correlation value, determining if said energy meter is connected to a branch fed by said power transformer , and is characterised in that the at least one signal from a power transformer comprises a signal obtained from a feeder of the power transformer, and step iv) provides the determination of whether said energy meter is connected to a branch fed by said feeder of the power transformer, and wherein the correlation of step iii) specifically comprises: - determining a load of said transformer and logically associating more than one energy meter to said load, - summing the signals from said more than one energy meters, and - logically matching said sum to the transformer load, wherein the correlation value is obtained from said matching. i) obtaining at least one signal from a power transformer , ii) obtaining at least one signal from an energy meter , iii) correlating the at least one signal from the power transformer with the at least one signal from an energy meter, thereby obtaining a correlation value , iv) based on the correlation value, determining if said energy meter is connected to a branch fed by said power transformer , and - determining a load of said transformer and logically associating more than one energy meter to said load, - summing the signals from said more than one energy meters, and - logically matching said sum to the transformer load, wherein the correlation value is obtained from said matching.
A laser radar system comprising: a semiconductor laser configured to output first light having a first frequency in a first period and second light having a second frequency in a second period; an optical splitter configured to split the first light and the second light outputted from the semiconductor laser into signal light and local oscillator light; an optical modulator configured to modulate the signal light into pulsed light; an optical antenna configured to radiate the pulsed light modulated by the optical modulator into space and to receive, as reception light, scattered light of the pulsed light from a target ; an optical heterodyne receiver configured to perform, using the local oscillator light, heterodyne detection on the reception light; and a measurement unit configured to measure a propagation time of the scattered light from the target with its measurement start time that is a time when the measurement unit detects internally-scattered-light which is caused by the pulsed light's scattering by the optical antenna and to thereby measure a distance to the target by using the reception signal detected through the heterodyne detection performed by the optical heterodyne receiver , wherein the optical heterodyne receiver is configured to perform heterodyne detection on the internally-scattered-light of the first light and the reception light of the first light by using the local oscillator light of the second light, and wherein a light path length (Ls) of the internally-scattered-light is longer than a light path length (L L ) of the local oscillator light. a semiconductor laser configured to output first light having a first frequency in a first period and second light having a second frequency in a second period; an optical splitter configured to split the first light and the second light outputted from the semiconductor laser into signal light and local oscillator light; an optical modulator configured to modulate the signal light into pulsed light; an optical antenna configured to radiate the pulsed light modulated by the optical modulator into space and to receive, as reception light, scattered light of the pulsed light from a target ; an optical heterodyne receiver configured to perform, using the local oscillator light, heterodyne detection on the reception light; and a measurement unit configured to measure a propagation time of the scattered light from the target with its measurement start time that is a time when the measurement unit detects internally-scattered-light which is caused by the pulsed light's scattering by the optical antenna and to thereby measure a distance to the target by using the reception signal detected through the heterodyne detection performed by the optical heterodyne receiver , wherein the optical heterodyne receiver is configured to perform heterodyne detection on the internally-scattered-light of the first light and the reception light of the first light by using the local oscillator light of the second light, and wherein a light path length (Ls) of the internally-scattered-light is longer than a light path length (L L ) of the local oscillator light.
A compound of Formula A: wherein, substituent R' is selected from H, butyryl or alkenoyl having 2 to 4 carbon atoms, substituent R is selected from alkanoyl or alkenoyl having 11 to 22 carbon atoms. substituent R' is selected from H, butyryl or alkenoyl having 2 to 4 carbon atoms, substituent R is selected from alkanoyl or alkenoyl having 11 to 22 carbon atoms.
A method of fabricating a negative electrode for an electrochemical cell, comprising: providing a substrate , said substrate being electrically conductive; depositing a metal layer on said substrate ; anodizing said metal layer to form a porous layer on said substrate such that at least a portion of the porous layer extends all the way through the thickness of the metal layer; depositing a layer of mixed ionically and electrically conductive oxide; depositing a layer of ion conducting material on said porous layer, said layer of ion conducting material extending at least partially into pores of said porous layer; densifying said layer of ion conducting material ; depositing a layer of alkali metal on the densified layer of ion conducting material; and attaching a temporary electrode to said layer of alkali metal and passing a current between said temporary electrode and said substrate to drive alkali metal through the densified layer of ion conducting material to the surface of said substrate, forming an alkali metal reservoir at the surface of said substrate. providing a substrate , said substrate being electrically conductive; depositing a metal layer on said substrate ; anodizing said metal layer to form a porous layer on said substrate such that at least a portion of the porous layer extends all the way through the thickness of the metal layer; depositing a layer of mixed ionically and electrically conductive oxide; depositing a layer of ion conducting material on said porous layer, said layer of ion conducting material extending at least partially into pores of said porous layer; densifying said layer of ion conducting material ; depositing a layer of alkali metal on the densified layer of ion conducting material; and attaching a temporary electrode to said layer of alkali metal and passing a current between said temporary electrode and said substrate to drive alkali metal through the densified layer of ion conducting material to the surface of said substrate, forming an alkali metal reservoir at the surface of said substrate.
A wellbore linear actuator with hydraulic feed through comprising; - a double acting cylinder with a cylinder bore , wherein the double acting cylinder comprises - a cylinder head , - a cylinder cap opposite said cylinder head , - a piston head , and - a piston rod , wherein said piston head separates said cylinder bore into a first chamber and a second chamber , and said piston rod extends out of said second chamber through said cylinder cap , characterized in that said double acting cylinder has a first end at the cylinder head and a second end at the external end of the piston rod , wherein said double acting cylinder further comprises; - a feed fluid passage between said first and second ends , wherein said feed fluid passage comprises; - a first fluid line through said piston head and said piston rod , - said first chamber , and - a second fluid line through said cylinder head . - a double acting cylinder with a cylinder bore , wherein the double acting cylinder comprises - a cylinder head , - a cylinder cap opposite said cylinder head , - a piston head , and - a piston rod , wherein said piston head separates said cylinder bore into a first chamber and a second chamber , and said piston rod extends out of said second chamber through said cylinder cap , characterized in that said double acting cylinder has a first end at the cylinder head and a second end at the external end of the piston rod , wherein said double acting cylinder further comprises; - a feed fluid passage between said first and second ends , wherein said feed fluid passage comprises; - a first fluid line through said piston head and said piston rod , - said first chamber , and - a second fluid line through said cylinder head .
A process for heating and/or air conditioning a motor vehicle passenger compartment using a reversible refrigerating loop, in which a refrigerant circulates, comprising a first heat exchanger, an expansion valve, a second heat exchanger, a compressor and means for inversion of the operation of the reversible refrigerating loop, characterized in that the refrigerant comprises: - from 4% to 6% by weight of difluoromethane; - from 2.5% to 3.5% by weight of pentafluoroethane; and - from 91% to 93.5% by weight of tetrafluoropropene, preferably 2,3,3,3-tetrafluoropropene. - from 4% to 6% by weight of difluoromethane; - from 2.5% to 3.5% by weight of pentafluoroethane; and - from 91% to 93.5% by weight of tetrafluoropropene, preferably 2,3,3,3-tetrafluoropropene.
A non-combustion type flavor inhaler comprising: a reservoir storing an aerosol source ; a transfer unit transferring the aerosol source from upstream of the liquid surface forming location to a liquid surface forming location at which a liquid surface of the aerosol source is formed, the transfer unit being configured to form the liquid surface ; a suction port arranged downstream of the liquid surface forming location; a first atomizer atomizing the aerosol source located upstream of the liquid surface forming location; and a second atomizer atomizing a droplet generated from the liquid surface formed at the liquid surface forming location, the droplet being located downstream of the liquid surface forming location. a reservoir storing an aerosol source ; a transfer unit transferring the aerosol source from upstream of the liquid surface forming location to a liquid surface forming location at which a liquid surface of the aerosol source is formed, the transfer unit being configured to form the liquid surface ; a suction port arranged downstream of the liquid surface forming location; a first atomizer atomizing the aerosol source located upstream of the liquid surface forming location; and a second atomizer atomizing a droplet generated from the liquid surface formed at the liquid surface forming location, the droplet being located downstream of the liquid surface forming location.
Electric/electronic installation system for buildings with at least two actuators (A1 to An) linked via a bus system (BUS), each designed as rail-mounted device, each with several load outputs (L1 to Ln) for influencing connected loads (LA), wherein at least one display element (AE1 to AEn) is assigned to each load output (L1 to Ln), and which actuators (A1 to An) each provide several first operating elements (BE1 to BE4) for manual influencing of the connected loads (LA) on demand, and wherein at least one second operating element (BEZ) is provided for programming, and wherein, released by operating one of the first operating elements (BE1 to BE4), at least one display element (AE1 to AEn) each of the relevant actuator (A1 to An) can be influenced via the logic unit (L) of each actuator (A1 to An), characterized by the fact that for the purpose of simultaneously influencing the display elements (AE1 to AEn) of a plurality of actuators (A1 to An) the logic units (L) of the actuators (A1 to An) are connected to one another in terms of data technology via the bus system (BUS), and that the logic unit (L) of each actuator (A1 to An) has an actuator evaluation stage (BS) and a display element activation stage (AS).